Shortwave diathermy is a modality that uses electromagnetic energy to produce deep heating in tissues. It works by converting radiofrequency waves into thermal energy, with the depth and pattern of heating dependent on frequency, device type, and tissue water content. Shortwave diathermy is commonly used at 27 MHz to provide both deep and superficial tissue heating. It can be delivered continuously or pulsed to provide therapeutic effects like increased blood flow and accelerated wound healing. Proper application of shortwave diathermy involves preparing the patient and device, applying the appropriate electrode or coil configuration, monitoring for thermal sensation, and taking safety precautions to avoid risks like burns or electric shock.
Therapeutic Ultrasound for Physiotherapy studentsSaurab Sharma
This lecture intends to provide general outline about the uses, parameters, precautions and contraindications of therapeutic ultrasound for undergraduate physiotherapy students at Kathmandu University School of Medical Sciences, Nepal. After the lecture, students will explore the evidences about current practices of therapeutic ultrasound in various musculoskeletal pain conditions, critically appraise them and present the evidences to the class.
This document discusses laser therapy, including its production, types, effects, applications, and techniques. It begins by defining laser as light amplified by stimulated emission of radiation. It then describes the key properties of lasers as monochromaticity, coherence, and collimation. It discusses the different types of lasers based on lasing medium (ruby, HeNe, diode) and intensity (high power, low power). The physiological and therapeutic effects of lasers are outlined, including effects on wound healing, pain relief, and inflammation. Applications such as wound healing and reducing pain and inflammation are indicated. The document concludes by describing techniques for laser application and important parameters like wavelength, energy density, and dosage.
Ultrasonic therapy uses high frequency sound waves above the range of human hearing to provide therapeutic effects. It works by using an electrical current to power transducers that convert the current into ultrasonic waves. These waves can then be used for diagnostic imaging, surgery, and physiotherapy. Therapeutically, ultrasonic waves create effects through thermal, mechanical, and chemical/biological interactions with tissues. Common uses are for musculoskeletal conditions like sprains, tendinitis, and arthritis. Proper application involves selecting an appropriate intensity, duration, and frequency setting based on the condition being treated. Risks like burns and tissue damage require precautions like starting with low intensities and using pulsed rather than continuous waves in some cases.
The document discusses microwave diathermy (MWD), including its properties, production, therapeutic effects, indications, contraindications, and precautions. MWD uses electromagnetic waves between 300 MHz to 300 GHz to generate heat in superficial tissues up to 3 cm deep. It can be used to treat pain, muscle spasms, inflammation and other conditions affecting small, superficial areas like joints, muscles, and tendons. Proper application and monitoring are needed to avoid risks such as burns.
Microwave diathermy (MWD) is a therapeutic modality that uses electromagnetic radiation between 300-3000MHz to induce deep heating of tissues. MWD generates an electrical field that is strongly absorbed by fluid-rich tissues, causing ionic movement and heat. It can effectively penetrate tissues to a depth of 4.5cm. MWD is used to relieve pain, promote healing, and increase tissue extensibility through its physiological effects on metabolism, blood supply, and nerves. Proper application of MWD requires screening for contraindications, monitoring for safety, and documentation of treatment parameters.
Short wave diathermy is a therapeutic modality that uses electromagnetic radiation in the frequency range of 27-100 MHz to generate deep heat in body tissues. It works by inducing molecular vibration through radio wave penetration of tissues, causing both thermal and non-thermal effects. Common applications include reducing pain, inflammation and healing time for injuries or post-surgical conditions. Different electrode types and placements can be used to concentrate the electromagnetic field in specific areas. Factors like electrode size, spacing, and positioning affect the depth and distribution of heating in the target tissues. Risks include burns and electric shock if not properly administered.
A faradic current is a short duration interrupted direct current with a pulse duration of 0.1-1 ms and frequency of 50-100 Hz. It produces a biphasic, asymmetrical and spiked waveform. Faradic currents are used to produce near normal tetanic-like muscle contractions and relaxations. When applied to nerves and muscles, it causes sensory stimulation, muscle contraction, reduced swelling and pain, and increased metabolism. Faradic current is indicated for muscle reeducation, maintaining range of motion, loosening adhesions, and replacing orthosis. It involves placing electrodes on muscles or nerve trunks and gradually increasing and decreasing intensity to cause contraction and relaxation.
IFT which stands for Interferential Therapy is one of the types of electrotherapy used for the management of pain. The principle of interferential therapy is to cause two medium frequency currents of slightly different frequencies to interfere with one another. For example, if circuit A carries a current with the frequency of 4000Hz and Circuit B carry a current with a frequency of 3980 Hz, then the low frequency produced will be 20 Hz and this frequency is very useful in pain modulation. A new low-frequency current known as the beat frequency is equal to the difference in frequencies between the two medium frequency currents produced in the tissues at the point where the two currents cross.
It is basically used for the treatment of Chronic, Post Traumatic, and Post-surgical pains. The basic principle involves the utilization of effects of low frequencies (<250pps) without painful or unpleasant side effects. The major advantage of IFT is that it produces effects in the tissue, exactly where required without unnecessary and uncomfortable skin stimulation. This technique is widely used to elicit muscle contraction, promote healing and reduce edema.
Vector effect: The interference field is rotated to an angle of 450 in each direction, the field thus covers a wider area. This is useful in diffuse pathology or if the site of the lesion cannot be accurately localized.
Frequency swing: Some equipment allows a variation in the speed of the frequency swing. A rhythmic mode may be a continuous swing from 0 to 100 Hz in 5-10s and back in similar time or it may hold for 1-6s at one frequency followed by 1-6s at another frequency with a variable time to swing between the two.
Constant frequency: Some treatments may be carried out with the interference fixed at a certain frequency. Rhythmic frequency is useful if several types of tissues are to be treated at once. A variation in the frequency also overcomes the problem of tissue accommodation where the response of a particular tissue decreases with time.
WORKING PRINCIPLE: Interferential current therapy works by sending small amounts of electrical stimulation to damaged tissues in the body. The therapy is meant to boost the body's natural process of responding to pain, by increasing circulation thus produces hormones that promote healing. IFT delivers intermittent pulses to stimulate surface nerves and block the pain signal, by delivering continuous deep stimulation into the affected tissue. IFT relieves pain, increases circulation, decreases edema, and stimulates the muscles. A frequency of 100Hz may stimulate the large diameter A-beta fibers, which have an effect on the pain gate, and inhibit the transmission of small-diameter nociceptive traffic ( C and A-delta fiber), which effectively closes the gait to painful impulses. Interferential current Increases the circulation of blood thus reduces swelling.
Ultrasonic therapy uses high-frequency sound waves to treat injuries and conditions. It works by generating ultrasound using piezoelectric crystals that expand and contract in response to an electrical current. This creates alternating compressions and rarefactions that transmit energy into the body. Ultrasound has both thermal and non-thermal physiological effects, such as generating heat in tissues through absorption and cavitation, microstreaming, and mechanical tissue massage. Its heating properties can accelerate healing while its non-thermal effects may increase cell permeability and movement. Ultrasonic therapy is used to reduce pain and swelling and aid in tissue repair by stimulating fibroblasts and collagen production.
This document discusses interrupted direct current (IDC), which describes continuous unidirectional current that is interrupted to create pulses of varying duration, shape, or frequency. There are two main types of IDC pulses: rectangular wave pulses and accommodation pulses. Rectangular pulses have sudden rises and falls, while accommodation pulses gradually rise and fall in shapes like triangular, trapezoid, or sawtooth. IDC can stimulate nerves and muscles. Short pulses preferentially stimulate nerves, while longer pulses are needed to stimulate muscles at tolerable intensities. The document discusses electrotonus effects from IDC and considerations for selecting appropriate pulse durations and intensities. It concludes with indications for using electrical stimulation to produce muscle contraction without excessive fatigue.
Contrast baths involve alternating immersion of an area in hot and cold water to increase blood flow and decrease joint stiffness. The alternating temperatures cause vasodilation and vasoconstriction, pumping blood and removing edema. This treatment alleviates pain, stiffness, and edema by improving circulation, increasing immune cells, and suppressing pain. Contrast baths are used for injuries like sprains and arthritis of the hands, wrists, feet, ankles, elbows, and knees. The procedure involves soaking in warm water for periods, then cold water for shorter periods, totaling around 25 minutes.
This document discusses galvanic current and its use in stimulating denervated muscles. It defines galvanic current as a direct, unidirectional current that can cause pain due to its unidirectional nature. Interrupted galvanic current is introduced to overcome this by providing regular pauses in stimulation. Stimulating denervated muscles with galvanic current can help limit atrophy and edema until reinnervation occurs. Precautions must be taken when applying galvanic current due to potential dangers like burns or electric shock.
Microwave diathermies (MWDs) are electromagnetic (EM) radiation emitting systems that are used by physiotherapists for thermotherapy treatment. This presentation will give an overview about Microwave diathermy to all physiotherapy clinicians, students & teaching faculties
Short wave diathermy (s.w.d) electro therapyÂbhìšhék Singh
Electrotherapy topic shot wave diathermy ppt (physics)
Bachelor of physiotherapy topic swd . Swd introduction, and range of swd , indications and contraindications of swd
Sinusoidal current is an alternating current that produces smooth, rhythmic muscle contractions at 50 Hz. It is produced from mains electricity reduced to 60-80 volts using a step-down transformer. This current stimulates both motor and sensory nerves, causing tetanic muscle contraction and tingling sensation. It is often used over large areas to relieve pain through sensory stimulation and reduce edema through rhythmic muscle pumping. Sinusoidal current is similar to faradic current but provides deeper penetration and is less irritating, making it well-suited for nervous clients.
This document discusses pulsed shortwave therapy (PSWT), which delivers pulsed electromagnetic energy in short pulses with time gaps between. PSWT uses a similar 27.12MHz frequency as traditional shortwave diathermy but with lower mean power of 2-5W. It results in non-thermal tissue heating through effects on cell membranes and ion transport. PSWT is shown to increase healing factors like white blood cells in wounds and reduce edema and inflammation. Treatment doses and contraindications are provided. PSWT is compared to traditional shortwave diathermy, with PSWT having non-thermal rather than thermal effects.
Ultraviolet radiation covers a small part of the electromagnetic spectrum between visible light and X-rays. It is divided into UVA, UVB, and UVC based on wavelength. UV is produced by mercury vapor lamps and fluorescent lamps and can cause both immediate and long term effects on skin like erythema, pigmentation, vitamin D production, and skin cancer. The dosage of UV exposure depends on the lamp output, distance from the skin, exposure time, and individual skin sensitivity. UV therapy is used to treat conditions like psoriasis, acne, and eczema.
The History of SWD
Production, Generation, Method of Application, Patient Preparation, Physiologcal and therapeutic effects, Indications, Contraindications daners of SWD, and Evidence Based Practice.
Sinusoidal current produces a sine wave alternating current of 50 Hz, giving 100 pulses per second with durations of 10ms each, alternating direction 50 times in each direction. It is produced from mains power by reducing the voltage to 60-80v using a step down transformer. When passed through the body, sinusoidal current causes changes in ion concentrations at cell membranes, producing muscle contraction in nerves and ionic movement in other tissues. It is commonly used to cause rhythmic muscle contractions and relieve pain and reduce swelling by alternately changing cell membrane permeability. Indications include pain and pain/swelling, while contraindications include skin lesions, infections, and impaired sensation.
Saurab Sharma presented on Transcutaneous Electrical Nerve Stimulation (TENS). The objectives were to understand TENS theory, application techniques, uses, electrode placement, and precautions. TENS delivers electricity across the skin to activate nerves and provides pain relief for acute, chronic non-malignant, and palliative malignant pain. Different application techniques include high frequency, low frequency, brief intense, burst mode, and modulated TENS. Common uses are postoperative, labor, musculoskeletal, and neuropathic pain. Electrodes are placed over painful sites and precautions taken with pacemakers, malignancy, and skin conditions.
Diathermy uses electric currents to generate deep heat within tissues up to 2 inches below the skin's surface. It promotes blood flow and reduces pain and stiffness. Shortwave diathermy specifically uses radiofrequency currents between 10-100 MHz to heat tissues. It can treat musculoskeletal conditions like arthritis as well as injuries and infections by speeding recovery through increased circulation and metabolism. Risks include burns if not properly controlled or applied to people with medical implants. Proper electrode placement and settings are needed to target heating and avoid harming surrounding tissues.
Este documento describe los diferentes tipos de corrientes de alta frecuencia utilizadas en fisioterapia, incluyendo la darsonvalización, diatermia, diatermia de onda corta y diatermia de microondas. Explica cómo estas corrientes generan calor en los tejidos a través de la vibración de iones y rotación de moléculas polares, resultando en efectos terapéuticos como la reducción de inflamación y dolor muscular.
1. Short wave diathermy produces heat in tissues through electromagnetic waves, increasing metabolism, blood flow, and temperature. The rise in temperature causes muscle relaxation and more efficient muscle action.
2. Increased blood flow and metabolism help resolve inflammation and remove waste products from injuries or infections, speeding the healing process. Heat also increases blood supply and the delivery of nutrients to injured areas.
3. Short wave diathermy can be used to treat musculoskeletal disorders like arthritis, sprains, and muscle tears as well as inflammatory conditions including boils, carbuncles, and infected surgical incisions.
Short wave diathermy uses electromagnetic waves between 3-30 meters to generate heat in body tissues. It works by using an oscillator circuit to produce high frequency currents that are delivered to the patient via electrodes or an insulated cable, generating an electric field that causes ion and molecule movement producing heat. The heat increases blood flow and metabolism, reducing pain and inflammation for conditions like muscle injuries and post-surgical healing. Precautions must be taken to avoid burns or interacting with implants.
The document discusses post-polio residual paralysis, including:
1. It provides historical context on polio and describes the etymology and pathology of the virus.
2. Poliovirus attacks the anterior horn cells of the spinal cord, causing flaccid paralysis. This can lead to progressive muscle imbalance and deformities over time if left untreated.
3. Management focuses on strengthening unaffected muscles, stretching shortened muscles, exercises to maintain range of motion, orthotics and bracing, and surgery to correct severe deformities. The goal is maximizing recovery and function.
Diathermy is a therapeutic treatment that uses electric currents to generate deep heat inside tissues up to two inches below the skin's surface. It works by using electromagnetic fields to cause body tissues' dipole molecules to rearrange and generate heat, which increases blood flow and promotes healing. There are several types of diathermy that use different electromagnetic wavelengths, including shortwave, microwave, ultrasound, and longwave diathermy, which are used to treat various musculoskeletal conditions and injuries. While diathermy provides benefits like pain relief, improved flexibility and circulation, it also carries risks if used improperly or by those with implanted metal devices.
Here is the complete information about short wave diathermy. our main focus is on short wave diathermy and its medical effects in physiotherapy. our main goal is to provide you short but useful information hope this helps you a lot in your studies.
This document discusses different types of diathermy used in physical therapy including microwave diathermy, shortwave diathermy, and ultrasound diathermy. Microwave diathermy uses electromagnetic waves between 300-3000 MHz to generate heat in superficial tissues. Shortwave diathermy uses frequencies between 10-100 MHz to produce both deep and superficial tissue heating. Ultrasound diathermy uses sound waves to treat deep tissues by generating heat from tissue vibration. Diathermy provides relief for conditions like arthritis, back pain, and muscle spasms but can cause burns if metal devices are present and should be avoided in certain medical conditions.
This document discusses the use of electrosurgery in esthetic dental procedures. It begins by outlining some common esthetic considerations like color, spacing, and soft tissue arrangement. It then describes how electrosurgery can be used conservatively for soft tissue alterations without the need for surgery. The document provides details on how electrosurgery works, producing heat through radiofrequency waves to contour soft tissues. Various electrosurgery techniques are explained for incisions, coagulation, and tissue removal. The document outlines appropriate uses of electrosurgery and important safety considerations for patient care.
Diathermy uses high-frequency electrical currents to generate deep heat in tissues for physical therapy and surgery. There are three main types: shortwave, ultrasound, and microwave diathermy. It can be used to warm tissues for pain relief or to coagulate and seal tissues during surgery. Surgical diathermy comes in monopolar and bipolar forms and is used for coagulation, fulguration, and cutting. Risks include burns, explosions from igniting flammable substances, and device malfunctions.
This topic has been introduced in the new edition of Bailey & Love - 26th. This topic covers the types, uses & special uses as well as complications of Diathermy.
Microwave diathermy is a therapeutic modality that uses electromagnetic waves to generate heat in tissues for treating musculoskeletal conditions. It works by causing movement of ions and water molecules when its high frequency waves are absorbed by tissues. The document discusses the physics behind microwave diathermy, its applications and effectiveness in treating conditions like muscle strains and joint injuries, appropriate treatment parameters, safety considerations and precautions for its use.
This document discusses different electrosurgical technologies used in surgery. It describes four main forms of electrosurgery: electrical, ultrasonic, argon beam, and laser. For each form, it provides details on how the technology works and its applications and advantages in surgery. The document also covers principles of electrosurgery such as monopolar versus bipolar current, effects of current on tissue, and potential complications if not properly used.
This document discusses diathermy, which uses high frequency current to cut and coagulate body tissue. It describes the different types of diathermy including shortwave, ultrasound and microwave. Shortwave diathermy uses condenser plates to concentrate heat in subcutaneous tissues. Ultrasound uses acoustic vibrations converted to heat, while microwave diathermy uses similar radiation to radar waves. The document also covers monopolar and bipolar diathermy configurations and safety precautions for using diathermy.
This document discusses diathermy, which uses high frequency current to cut and coagulate body tissue. It describes the different types of diathermy including shortwave, ultrasound and microwave. Shortwave diathermy uses condenser plates to concentrate heat in subcutaneous tissues. Ultrasound uses acoustic vibrations converted to heat, while microwave diathermy uses similar radiation to radar waves. The document also covers monopolar and bipolar diathermy configurations and safety precautions for using diathermy.
Microwave diathermy is a therapeutic modality that uses electromagnetic radiation between 300-3000MHz to induce localized heating within body tissues for conditions like soft tissue injury, pain relief, and mobilization by taking advantage of how different tissues absorb microwave energy to varying degrees. It works by using a magnetron to generate microwaves that are focused through applicators onto the target area, with circular or rectangular applicators used depending on the size of the treatment region. Risks include burns if not properly applied or if the patient has conditions like circulatory defects, impaired sensation, or implanted metals near the target area.
Microwave Diathermy (MWD) involves using electromagnetic radiation between 300-3000MHz to induce localized heating within body tissues for therapeutic purposes such as treating soft tissue injuries and pain, with its depth of penetration dependent on tissue composition and water content. MWD applicators are designed to focus microwave energy directly onto target areas while avoiding overheating, and treatments typically last 20-30 minutes daily or every other day depending on the individual. Potential risks include burns from improper application or positioning near metallic implants.
This document provides information on diathermy, which uses electromagnetic energy to generate heat in tissues for therapeutic purposes. It defines diathermy and outlines the objectives of the lecture. The key types are described as shortwave and microwave diathermy. The document explains how each type produces and delivers heat to tissues and their therapeutic parameters and dosages. The effects of diathermy on tissues are explained based on their composition and the mechanisms of heat production. The therapeutic effects, indications, and contraindications are enumerated. Guidelines for safe application and electrode placement are also provided. References are listed at the end.
Short wave diathermy (SWD) is a therapeutic modality using radiofrequency electromagnetic waves to generate deep heat in body tissues. There are two main types - continuous SWD and pulsed SWD. SWD can be applied using either the capacitive (electric field) method with air plates or pads, or the inductive (magnetic field) method using coils or drums. The appropriate settings are selected based on the treatment area and goals. Precautions must be taken to avoid risks and ensure patient comfort during the procedure. SWD has potential for reducing pain and swelling in conditions like knee injuries.
Modified galvanic current, or interrupted direct current, is a type of electrical stimulation where a direct current is pulsed on and off at regular intervals. The document discusses how this current is produced using a source, transistors, and a timer circuit. It describes the physiological effects of interrupted direct current such as sensory stimulation, hyperemia, electrotonus, pain relief, and accelerated healing. The document also provides guidelines for administering interrupted direct current and lists contraindications.
This document discusses therapeutic ultrasound including its physical principles, biophysical effects, clinical applications, and guidelines for safe use. Ultrasound uses piezoelectric crystals to generate sound waves that can be used for imaging, physical therapy, and tissue destruction. Its effects include increased tissue temperature, cavitation, and mechanical alterations. Common uses are for joint contractures, pain/spasm, tendinitis, and wound healing. Guidelines cover intensity, duration, frequency selection, and precautions to avoid harm. Case studies demonstrate ultrasound for various conditions.
This document discusses various physiotherapy methods including short wave diathermy, ultrasound therapy, and interferential therapy. It provides details on their principles, mechanisms of action, indications, contraindications, precautions, and therapeutic uses. Short wave diathermy uses electromagnetic energy to generate heat deep in tissues and provides both thermal and non-thermal effects. Ultrasound therapy uses high frequency sound waves above 20,000 Hz to mechanically stimulate tissues. Interferential therapy applies two or more alternating medium frequencies to generate a low frequency current and stimulate nerves in a comfortable and tolerable way. All three modalities can be used to reduce pain and spasm, increase blood flow, enhance tissue healing, and relax muscles.
Thermal cauterization uses electromagnetic currents to generate heat in body tissues. It can be used physically to treat deeper lesions or surgically to cauterize blood vessels and destroy abnormal growths. The process involves an electrosurgical generator, active electrode, patient return electrode, and forming an electrical circuit. Different frequencies are used for different applications like nerve stimulation or electrosurgery. Bipolar cauterization involves both electrodes at the surgical site while monopolar uses one active electrode and a patient return elsewhere. Settings like waveform, power, and time determine cutting versus coagulation effects. Safety involves avoiding interference with devices and preventing burns.
This document discusses the use of electrosurgery in dentistry. It begins by describing the basic components and mechanism of electrosurgery, noting that it uses high frequency alternating current to generate heat and cut or coagulate tissue without significant bleeding. It then discusses various electrosurgery techniques and their indications, benefits including minimal trauma and hemostasis, and potential risks like odor and heat damage. It also compares electrosurgery to lasers, noting their similar applications but differences in costs, learning curves, and heat production. In summary, the document presents electrosurgery as a safe and effective soft tissue management tool when used properly.
These lecture slides, by Dr Sidra Arshad, offer a comprehensive look into cardiac arrhythmias.
Learning objectives:
1. Summarise how an electrocardiogram is read
2. Discuss the electrocardiographic interpretation of:
3. Abnormal voltages of the QRS complex
4. Abnormal sinus rhythms
5. Heart blocks
6. Myocardial ischemia and infarction
7. Electrolytes abnormalities
8. Explain the following terms: reentry, and circus movement
9. Describe the electrical alteration in conduction responsible for fibrillation and flutter
10. Differentiate between fibrillation and flutter based on ECG findings
11. Describe the significance of defibrillation in emergency cardiac situations
Study Resources:
1. Chapter 12, Guyton and Hall Textbook of Medical Physiology, 14th edition
2. Chapter 9, Human Physiology - From Cells to Systems, Lauralee Sherwood, 9th edition
3. Chapter 29, Ganong’s Review of Medical Physiology, 26th edition
4. Electrocardiogram, StatPearls - https://www.ncbi.nlm.nih.gov/books/NBK549803/
5. ECG in Medical Practice by ABM Abdullah, 4th edition
6. Chapter 3, Cardiology Explained, https://www.ncbi.nlm.nih.gov/books/NBK2214/
7. ECG Basics, https://geekymedics.com/how-to-read-an-ecg/
कायाकल्प क्लिनिक: पटना के अग्रणी सेक्सोलॉजिस्ट और स्किन केयर विशेषज्ञ
पटना का एक शानदार स्वास्थ्य सेवा प्रदाता, कायाकल्प क्लिनिक, आपके स्वास्थ्य और त्वचा की देखभाल में विशेषज्ञता प्रदान करता है। हमारे नवीनतम तकनीकी समाधानों और अनुभवी विशेषज्ञों के साथ, हम पुरुष और महिलाओं के स्वास्थ्य सम्बंधित मुद्दों को हल करते हैं। यहां पर हम प्रदान करते हैं:
Expert Treatment for Sex Issues at Kaya Kalp Clinic in Patna -best sexologist in patna
Dealing with sex-related problems? Find effective solutions at Kaya Kalp Clinic in Patna. Our experienced sexologist doctors are here to help.
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We understand the sensitivity of these issues. Our doctors provide confidential and respectful care. We tailor treatments to meet your needs and lifestyle.
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Don’t let sex-related issues affect your life. Contact Kaya Kalp Clinic today for expert care and support. Rediscover confidence and happiness in your sexual health.
Phone: 93342 00215
Discover the Best Sexologist in Patna: Expert Care at Kayakalp Clinic
Kayakalp Clinic - Best Sexologist in Patna
Kayakalp Clinic - Best Sexologist in Patna
When it comes to sexual health, finding the right expert is essential for effective diagnosis and treatment. At Kayakalp Clinic in Patna, we pride ourselves on providing exceptional care for a wide range of sexual health issues. If you’re searching for the best sexologist in Patna, look no further. Our team of highly skilled professionals is here to help you navigate and resolve your concerns with confidentiality and compassion.
Why Choose Kayakalp Clinic?
1. Experienced Professionals
Our sexologists are highly trained and experienced in dealing with various sexual health issues. They stay updated with the latest advancements in the field to provide the best care possible.
2. Comprehensive Services
At Kayakalp Clinic, we offer a wide range of services, including:
- Treatment for erectile dysfunction
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We understand that every individual is unique, and so are their health concerns. Our sexologists take the time to understand your specific needs and create personalized treatment plans to ensure the best outcomes.
An exciting session emphasizing the timely intervention and management of obstetric sepsis for better patient outcomes.
This presentation highlights risk factors, diagnosis, management, and some interesting cases of obstetric sepsis.
Yoga talk & yoga slides by Flametree Yoga 11 July 2024.pdfStuart McGill
Yoga talk and yoga slides on the benefits of yoga and meditation, how it works, and how to get more very low cost yoga, or meditation, or both, in your life.
Report Back from ASCO 2024: Latest Updates on Metastatic Breast Cancer (MBC)....bkling
Join Dr. Kevin Kalinsky, breast oncologist and researcher from Emory Winship Cancer Institute, to learn about the latest updates from The American Society of Clinical Oncology (ASCO) annual meeting 2024.
These simplified lecture slides by Dr Sidra Arshad offer a concise look at the cardiovascular effects of heart failure:
1. Define cardiac failure, its pathophysiology and clinical manifestations
2. Differentiate between the factors causing hyper-effective and hypo-effective heart functions
3. Differentiate between right and left heart failure based on their presentation
4. Outline the physiology of treatment of cardiac failure
As a leading rheumatologist in Chandigarh, Dr. Aseem specializes in the diagnosis and management of a wide range of rheumatic conditions, including but not limited to:
Rheumatoid Arthritis: An autoimmune disorder that causes chronic inflammation of the joints.
Osteoarthritis: A degenerative joint disease characterized by the breakdown of cartilage.
Lupus: A systemic autoimmune disease that can affect the skin, joints, kidneys, and other organs.
Ankylosing Spondylitis: A type of arthritis that primarily affects the spine, causing pain and stiffness.
Gout: A form of arthritis characterized by sudden, severe attacks of pain, redness, and tenderness in the joints.
Psoriatic Arthritis: A type of arthritis that affects some people with psoriasis.
Vasculitis: An inflammation of the blood vessels that can cause a variety of symptoms.
Sjogren’s Syndrome: An autoimmune disorder characterized by dry eyes and mouth.
Accurate diagnosis is crucial for effective treatment. Dr. Aseem Goyal utilizes advanced diagnostic techniques to identify the underlying causes of rheumatic conditions. Our state-of-the-art facility is equipped with the latest technology to provide comprehensive diagnostic services, including:
Blood Tests: To check for markers of inflammation and autoimmune activity.
Imaging Studies: Such as X-rays, MRI, and ultrasound to assess joint and soft tissue damage.
Joint Fluid Analysis: To examine the fluid in the joints for signs of inflammation or infection.
Biopsy: In certain cases, a small tissue sample may be taken for further examination.
Treatment Approaches
Dr. Aseem Goyal adopts a holistic and patient-centered approach to treatment. Depending on the specific condition and its severity, treatment options may include:
Medications
Nonsteroidal Anti-Inflammatory Drugs (NSAIDs): To reduce inflammation and relieve pain.
Disease-Modifying Antirheumatic Drugs (DMARDs): To slow the progression of rheumatic diseases.
Biologic Agents: Targeted therapies that block specific pathways in the immune system.
Corticosteroids: To control severe inflammation quickly.
Staphysagria is often indicated for individuals who have a tendency to suppress emotions and suffer from the effects of suppressed anger, grief or indignation. They may exhibit a tendency to have a fragile or sensitive disposition. Staphysagria individuals often have a craving for solitude and a desire for sympathy.
Anthelmintics or antihelminthics are a group of antiparasitic drugs that expel parasitic worms and other internal parasites from the body by either stunning or killing them and without causing significant damage to the host. They may also be called vermifuges or vermicides
Prakinsons disease and its affect on eye.Riya Bist
Enhance your knowledge about Parkinsons' disease and about basic concept that medical personnel should know regarding this topic.It is very important to know about systemic disease and its impact on the eye so, here you can learn quickly about Parkinson's disease and its ocular manifestation.Download the ppt for visualization of animation.Thank you.
an huge problem we are facing about the anaemia , we slight our contribution to aware with one of its class , with detailed description. it is usefull for health , medicine , pharmacy , nursing.
Introduction to Dental Implant for undergraduate studentShamsuddin Mahmud
Introduction to Dental Implant
Dr Shamsuddin Mahmud
Assistant Professor, Department of Prosthodontics
Nortth East Medical College (Dental Unit)
Definition of Dental Implant
A prosthetic device
made of alloplastic material(s)
implanted into the oral tissues beneath the mucosal and/or periosteal layer and
on or within the bone
to provide retention and support for a fixed or removable dental prosthesis.
Classification of Dental Implant
According to placement within the tissue
Blade/Plate form implant
According to Material Used
A) METALLIC IMPLANTS
Commercially pure Titanium
Cobalt chromium molybdenum
Titanium aluminum vanadium
Stainless steel
B) NON-METALLIC IMPLANT
Zirconium
Ceramic
Carbon
According to the ability of implant to stimulate bone formation
A) Bio active
Hydroxyapatite
Tri Calcium Phosphate
B) Bio inert
Metals
Parts of Dental Implant
Implant fixture
Implant mount
Cover screw
Gingival former/healing screw/healing abutment/permucosal extension
Impression post/impression transfer abutment
Implant analogue
Abutment
Fixation screw
Implant Fixture
Implant Mount
Connected to the fixture
Function: used to carry implant from its vital to the prepared osteotomy site either by hand or with a ratchet/ handpiece adaption
Cover Screw
component that is used to cover the implant connection during the submerged healing of the implant
Function: preserves the patency of the connection by preventing any soft tissue ingrowth in the connection
Gingival former/ Healing Abutment/ Healing screw
Screw/ abutment used to create the soft tissue emergence profile around the implant.
Time of placement:
During 1st surgery – One step surgery
After Osseointegration – Two step/stage surgery
Gingival former/ Healing Abutment/ Healing screw
Placed in the site 2-3 weeks for soft tissue healing
Function:
Create gingival emergence profile
Formation of biological width
Impression post/impression transfer abutment
component that is used to trans- fer the implant Hex position and orientation from the mouth to the working cast.
Types
Closed tray
Open tray
Implant analogue/
component which has a different body but its platform and connection are exactly similar to the implant. The analogue is used to replicate the implant platform and connection in the laboratory mode.
Abutment
Abutments
Advantages of Dental Implant Retained Prosthesis
Maintain bone height and width by preventing bone resorption
Maintain facial esthetics
Improve masticatory performance
Improve stability and retention of prosthesis
More esthetics
Increase survival times of prostheses
There is no need to alter adjacent teeth
Improve psychological health
Disadvantages of Dental Implant Retained Prosthesis
Very expensive.
Cannot be used in medically compromised patients who cannot undergo surgery.
Longer duration of treatment
Requires a lot of patient co-operation because of repeated recall visits are essential
INDICATION OF DENTAL IMPLANT
Dental implants can successfully restore all
2. Def.: SWD is a modality that produces deep heating via
conversion of electromagnetic energy to thermal energy.
The pattern of heat produced depend on:
ᴥFreq. used.
ᴥ type of SWD unit.
ᴥwater content of the tissues.
Shortwave diathermy current freq. 10 – 100 MHz
(The shortest radiofrequency wave is used in therapeutic diathermy.)
the commonly used in medical work having freq.
of 27.12 MHz with wavelength of 11 meters
Modalities:
ether continuous or pulsed (PSWD).
o PSWD: application of series of short pulses of SWD so that short periods of SWD interrupted by gaps
where there is no SWD. The pt. receives lower dose of SWD energy if compared with continuous SWD
applied of the same time. The tissues will receive lower thermal load.
o SWD: produce both deep and sup. Tissue heating, under certain controlled conditions it’s applied for
20 min at the max tolerable dose.
SWD produced by an oscillating electric
current of extremely high frequency.
3. Therapeutic effect:
1. Increase blood flow.
2. Help resolution of inflammation.
3. accelerate wound healing.
4. ↗ extensibility of deep collagen tissues.
5. ↘ joint stiffness.
6. Relief deep mus. Pain & spasm. ( via muscle spindle & Golgi
tendon organ stimulation)
4. Clinical indications:
1. Resent burns.
2. Recent injuries.
3. Plastic surgery.
4. Postoperative
5. Post laminectomy pain.
6. Sinusitis
7. TMJ disorders.
8. Bell’s palsy.
9. Sub deltoid bursitis ass. With calcification.
10. Chronic arthritis
11. Degenerative complaints.
12. PID (pelvic infla. Dis.)
13. ↘pain ass. With herpes zoster.
5. Exp. Of SWD application in various cond.:
Soft tissues healing:
SWD ++ earlier maturation of collagen fibers.
raped regeneration of damaged ms. fibers.
PSWD more raped activity in collagen formation.
enhance rate of skin healing.
Resolution of haematoma:
enhance rapid resolution.
Recent ankle injuries
PSWD more effective
improve: pain, swelling, disability.
Pain:
relief pain ass. With various cond. E.g.: back pain.
PSWD relief pain ass. With acute injuries.
Nerve regeneration:
PSWD accelerate recovery of nerve conduction.
O.A:
SWD & PSWD forming part of physiotherapeutic modalities used in OA ttt.
6. contraindications:
1) Implanted pacemaker.
2) Metal in the tissues or ext. fixators.
3) Impaired thermal sensation.
4) Over pregnant uterus & intrauterine devises.
5) Hemorrhagic areas ( menses ).
6) Ischemic tissues.
7) Recent thrombosis.
8) Mlg. Tumors ↗proliferation.
9) Active TB.
10) Pt. pyrexia.
11) Areas of skin affected by courses of x-ray.
12) Uncooperative pt.
7. Application of SWD:
pt. is connected to the electrode
circuit of the high freq. Generator by:
A) capacitive applicator
or
B) inductive coil
8. A) capacitive applicator:
2 diff. types of electrodes for applying the
capacitive method:
Flexible metal plate malleable electrodes
Rigid metal discs disc electrode (more commonly used method.
Uses the patient’s tissues as a part of the circuit
The tissues’ electrical resistance produces heat
Selectively heats skin
Muscle is heated via conduction from the
adipose
Also referred to as “condenser field diathermy”
9. capacitive applicator .. Cont
The pt. is placed between 2 metal condenser plates.
Achieve higher temperature in water-poor tissues, (like:
sub. Cut. Adipose tissue, lig, tendons, joint capsule, Bone.)
Guid lines for electrode selection & placement:
1. Electrode should be of equal size
2. Electrode should be slightly larger than the body part
electric field is less uniform at the edge of the plate.
3. Electrode should be equidistant & at right angles to the
skin surface.
Electrodes arrangement
1. contraplanar application ( transverse): an electrode
is placed on either side of the limb.
2. Coplanar application: both electrodes are placed on
the same side of the limb.
3. Longitudinal application: one electrode is placed at
each end of the limb.
10. B) Inductive application
Based on ( electromagnetic induction)
Use induction coils that apply a magnetic field to
induce circular electrical field in the tissue.
They achieve higher temperature in water-rich
tissues. (Like: ms. Skin. Blood ..etc.) Current flowing within the coil
produces a rotating magnetic field
Which produces eddy currents in the
tissues
Eddy currents cause friction that
produce heat
11. Inductive application… cont.
Induction SWD method using
magnetic induction to produce
small eddy current in the tissues
which ↗↗ tissue temp.
2 diff. applicators are used in this
method:
1) most commonly used an
inductive coil applicator
2) Wrapping insulated cable around
the limb to be ttt.
12. Dose determination using thermal sensation
Pt. pain perception used to monitor heat intensity that is being
produced. (inaccurate method )
Therapist must be aware of the potential risk of causing tissue damage
& ensure that the max dose that a pt. receives cause only a mild
sensation of warmth. Towels are sometime placed to spacing &
absorb sweet, which is highly conductive and could result in
potentially sever focal heating.
Typical ttt time is 20 to 30 minutes
Acute cond. Should be ttt with low dose PSWD
And chronic conditions should be ttt with high dose SWD.
13. TTT procedures
Prepare the pt.:
1. Exclude any C.I.
2. Examine thermal & pain sensitivity of the pt.
3. Ensure removal of any metal object (ring jewelry ..) from the ttt area.
4. Ensure removal of any hearing aid. Contact lenses.
5. Removal of all bandages & clothes from the ttt area.
6. Ensure dryness of skin.
7. Ask the pt. to report immediately any abnormal sensation felt during ttt.
8. Ensure that the gonads aren’t subjected to irradiation.
14. TTT procedures … cont
Prepare the machine:
1. Ensure correct connection of cables.
2. Ensure that cables & applicators aren’t placed
on metal surfaces.
3. Ensure appropriate alignment of the applicator
for max energy transfer.
4. Ensure that cables aren’t close to untreated
tissues.
5. Ensure that pt. support isn’t metallic & all metal
objects are kept at least 3ms. Away from the
applicators & cables.
Correct wrong
15. TTT procedures … cont.
Once the unit activated the operator
should:
1.Remain at least 1m from the cables
2.Ensure that the pt. maintain correct
position.
3.Ensure that the pt. not left alone during
ttt unless supplied with reliable cut-off
switch.
4.Ensure the pt. not touch the machine.
5.Ensure that no other person is in the
vicinity of the machine.
16. Dangers of SWD.
1) Burns.
2) Scalads.
3) Faintness due to ↘ BP.
4) Ppt. of gangrene if area of ↘blood supply
5) Sparking if one electrodes touched while application of current
6) Electric shock.
7) Over dose … ↗ pain.