Abstract: An Instrumentation and Control (I&C) system for Emergency Diesel Generator (EDG) of the nuclear power plants is provided. The instrumentation and control system is adapted to be divided into two parts: first and second control parts. The first control part includes Safety I&C functions adapted to be controlled by wired logics based on electromechanical relays. Further, the second control part includes Non-safety I&C functions adapted to be controlled by Programmable Logic Controllers (PLCs)/Human Machine Interface (HMI).

Abstract: There is provided in accordance with an exemplary embodiment of the invention a method of treating diabetic patients comprising measuring a triglyceride level in a diabetic patient and applying a diabetes treatment according to the triglyceride level. Optionally, there is provided a method of screening. Alternatively or additionally, there is provided a method of weight loss. Alternatively or additionally, there is provided a method of relatively reducing HOMA-IR levels. Alternatively or additionally, there is provided a method of relatively reducing blood pressure. An exemplary device to apply the treatment is described.

Abstract: Apparatus (18) for treating a human patient, which includes one or more electrode contact surfaces (100), which are configured to be applied to a fundus (22) of the patient. A control unit (90) is configured to drive the one or more electrode contact surfaces (100) to apply an electrical signal to the fundus (22) that chronically improves a blood glucose level of the patient, in order to treat the patient, without calculating an impedance of tissue of the fundus (22) based on a sensed parameter that varies in response to the electrical signal, for detecting eating by the patient or a characteristic of food eaten by the patient. Other embodiments are also described.

Abstract: According to a method and device for modulating intracellular calcium concentration in biological tissue, a stimulation probe is applied to the tissue, a non-excitatory stimulation pulse is generated, and the pulse is conveyed to the stimulation probe. In one embodiment concerning cardiac tissue, a stimulation probe is applied to a patient's heart, a signal is received from at least one sensor responsive to the patient's cardiac muscle activity, a non-excitatory stimulation pulse responsive to the signal is generated, and the pulse is conveyed to the stimulation probe.

Abstract: There is provided in accordance with an exemplary embodiment of the invention a method of treating diabetic patients comprising measuring a triglyceride level in a diabetic patient and applying a diabetes treatment according to the triglyceride level. Optionally, there is provided a method of screening. Alternatively or additionally, there is provided a method of weight loss. Alternatively or additionally, there is provided a method of relatively reducing HOMA-IR levels. Alternatively or additionally, there is provided a method of relatively reducing blood pressure. An exemplary device to apply the treatment is described.

Abstract: There is provided in accordance with an exemplary embodiment of the invention a method of treating diabetic patients comprising measuring a triglyceride level in a diabetic patient and applying a diabetes treatment according to the triglyceride level. Optionally, there is provided a method of screening. Alternatively or additionally, there is provided a method of weight loss. Alternatively or additionally, there is provided a method of relatively reducing HOMA-IR levels. Alternatively or additionally, there is provided a method of relatively reducing blood pressure. An exemplary device to apply the treatment is described.

Abstract: A method is provided for identifying a patient as being suitable for implantation of a weight-loss assist device. The method includes identifying the patient as being generally suitable for the implantation and subsequently, measuring a value associated with the patient. Responsively to determining that the value is beyond a threshold associated therewith, the weight-loss assist device is implanted.

Abstract: Apparatus (18) for treating a human patient, which includes one or more electrode contact surfaces (100), which are configured to be applied to a fundus (22) of the patient. A control unit (90) is configured to drive the one or more electrode contact surfaces (100) to apply an electrical signal to the fundus (22) that chronically improves a blood glucose level of the patient, in order to treat the patient, without calculating an impedance of tissue of the fundus (22) based on a sensed parameter that varies in response to the electrical signal, for detecting eating by the patient or a characteristic of food eaten by the patient. Other embodiments are also described.

Abstract: Method and apparatus for modifying gene expression in cardiac muscle cells, by the application of electric fields. In some embodiments, the modification provides treatment of heart failure. Optionally, the treatment also provides an immediate improvement in cardiac function.

Abstract: A method is provided, including physically contacting a gastric implantation site of a stomach via a transluminal approach, physically contacting the site via a transabdominal approach, stabilizing the site, and implanting an electrode at the site based on the physical contact provided by the transluminal and transabdominal approach. Other embodiments are also described.

Abstract: The description above should not be construed as limiting the scope of the invention to the specific embodiments described, which are provided merely as examples or illustrations. The scope of the invention encompasses interchangeable substitutions that are known to or would be appreciated by those skilled in the art. Many other variations are possible. Thus, the scope of the invention should be determined by the appended claims and their legal equivalents, rather than by only the examples given above.

Abstract: Method and apparatus (120) for modifying gene expression in cardiac muscle cells (110), by the application of electric fields.

Abstract: A method is provided, including physically contacting a gastric implantation site of a stomach via a transluminal approach, physically contacting the site via a transabdominal approach, stabilizing the site, and implanting an electrode at the site based on the physical contact provided by the transluminal and transabdominal approach. Other embodiments are also described.

Abstract: According to a method and device for modulating intracellular calcium concentration in biological tissue, a stimulation probe is applied to the tissue, a non-excitatory stimulation pulse is generated, and the pulse is conveyed to the stimulation probe. In one embodiment concerning cardiac tissue, a stimulation probe is applied to a patient's heart, a signal is received from at least one sensor responsive to the patient's cardiac muscle activity, a non-excitatory stimulation pulse responsive to the signal is generated, and the pulse is conveyed to the stimulation probe.

Abstract: A method is provided for identifying a patient as being suitable for implantation of a weight-loss assist device. The method includes identifying the patient as being generally suitable for the implantation and subsequently, measuring a value associated with the patient. Responsively to determining that the value is beyond a threshold associated therewith, the weight-loss assist device is implanted.

Abstract: Method and apparatus (120) for modifying gene expression in cardiac muscle cells (110), by the application of electric fields.

Abstract: According to a method and device for modulating intracellular calcium concentration in biological tissue, a stimulation probe is applied to the tissue, a non-excitatory stimulation pulse is generated, and the pulse is conveyed to the stimulation probe. In one embodiment concerning cardiac tissue, a stimulation probe is applied to a patient's heart, a signal is received from at least one sensor responsive to the patient's cardiac muscle activity, a non-excitatory stimulation pulse responsive to the signal is generated, and the pulse is conveyed to the stimulation probe.