mhurhangee/ep-ind-claims huggingface dataset:
A photovoltaic cell module comprising: A. a first outermost layer having a light transmittance of at least 70 percent as determined by UV/Vis spectrophotometry using ASTM E424-71; B. a photovoltaic cell disposed on said first outermost layer; C. a backsheet disposed on said photovoltaic cell; and D. a second outermost layer opposite said first outermost layer, said second outermost layer disposed on an outward facing surface of said backsheet sandwiching said photovoltaic cell and said backsheet between said second outermost layer and said first outermost layer, wherein said second outermost layer is present in a coating weight of from 3 to 75 grams per square meter of the outward facing surface of said backsheet, wherein said backsheet and said second outermost layer each independently consist essentially of a silicone, and wherein said photovoltaic cell module passes the Wet Leakage Current Test at a voltage of at least 1000 Volts using IEC 61215 after humidity cycling for 1,000 hours. A. a first outermost layer having a light transmittance of at least 70 percent as determined by UV/Vis spectrophotometry using ASTM E424-71; B. a photovoltaic cell disposed on said first outermost layer; C. a backsheet disposed on said photovoltaic cell; and D. a second outermost layer opposite said first outermost layer, said second outermost layer disposed on an outward facing surface of said backsheet sandwiching said photovoltaic cell and said backsheet between said second outermost layer and said first outermost layer,
DALI control device comprising a DALI interface, wherein the DALI interface is adapted to receive and/or transmit DALI signals, wherein the DALI interface is adapted to additionally utilize a signal level of the DALI signals, wherein the DALI interface comprises an encoder, adapted to - encode a first information based on Manchester coding, and characterized in that the encoder is further adapted to - encode a second information based on a signal level of HIGH and/or LOW pulses of the Manchester coding. wherein the DALI interface is adapted to receive and/or transmit DALI signals, wherein the DALI interface is adapted to additionally utilize a signal level of the DALI signals, wherein the DALI interface comprises an encoder, adapted to - encode a first information based on Manchester coding, and - encode a first information based on Manchester coding, and characterized in that the encoder is further adapted to - encode a second information based on a signal level of HIGH and/or LOW pulses of the Manchester coding. - encode a second information based on a signal level of HIGH and/or LOW pulses of the Manchester coding.
A system for memory synchronization of a multi-core system, the system comprising: - an assigning module, which is configured to assign at least one memory partition (200-1,..., 200-n) to at least one core (1010-1,...,1010-n) of the multi-core system; - a mapping module, which is configured to provide information for translation lookaside buffer shootdown for the multi-core system leveraged by sending an interrupt to the at least one core (1010-1,...,1010-n) of the multi-core system, if a page table entry associated with the memory partition (200-1,..., 200-n) assigned to the at least one core (1010-1,...,1010-n) is modified; and - an interface module, which is configured to provide an interface to the assigning module from user-space. - an assigning module, which is configured to assign at least one memory partition (200-1,..., 200-n) to at least one core (1010-1,...,1010-n) of the multi-core system; - a mapping module, which is configured to provide information for translation lookaside buffer shootdown for the multi-core system leveraged by sending an interrupt to the at least one core (1010-1,...,1010-n) of the multi-core system, if a page table entry associated with the memory partition (200-1,..., 200-n) assigned to the at least one core (1010-1,...,1010-n) is modified; and - an interface module, which is configured to provide an interface to the assigning module from user-space.
A core for a spacer device suitable to be secured in a corresponding residual bone bed of a previous implant, wherein said core comprises a main body, wherein said main body comprises a plurality of through openings, wherein said main body is suitable for being covered with a layer (S; S1) of a coating material and/or said through openings are suitable for being covered and/or housing said coating material, added or that can be added with one or a plurality of pharmaceutical products, active and/or therapeutic substances, and wherein said main body comprises a stem and a collar, said collar being connectable to a further portion of the spacer insertable in a specific articular region of the patient, or to a specific articular region of a patient, characterised in that said stem comprises a first face and a second face, said first face and said second face being substantially parallel to each other, wherein said core comprises a first rib provided on said first face and a second rib provided on said second face, wherein said first rib and said second rib are symmetrical and opposite, wherein said first rib and said second rib engage said collar for its entire length and also a connecting zone of said collar to said stem.
A plate-type heat exchanger, comprising at least one stacked plate pair, each having two stacked plates (3, 4) which are aligned substantially parallel to each other, so that a fluid-tight fluid channel for the throughflow of a fluid, in particular water, is comprised between two respective stacked plates (3, 4), wherein each stacked plate has a substantially flat form with an edge area with a rim, wherein the two stacked plates of a stacked plate pair only lie on each other on the rim, an inlet and outlet opening (6, 8) for the fluid, wherein the heat exchanger comprises at least one electric resistance heating element and the at least one electric resistance heating element is thermally connected to the stacked plate (3, 4) and indirectly or directly mechanically connected to the stacked plate (3, 4), so that the fluid can be heated by means of the electric resistance heating element, wherein the at least one electric resistance heating element is a PTC element, wherein the at least one electric resistance heating element is disc-shaped and a fictitious plane spanned by the at least one electric resistance heating element is substantially aligned parallel to a fictitious plane spanned by one of the stacked plates (3, 4), wherein the heat exchanger comprises at least two conductors which are electrically connected to the at least one electric resistance heating element, in particular conductor plates, in order to conduct electric current through the at least one electric resistance heating element and thus heat the electric resistance heating element, wherein the two stacked plates (3, 4) of the at least one stacked plate pair are connected to each other in a fluid-tight manner by means of a soldered connection and the heat exchanger comprises at least one electric insulation element, in particular an insulation plate, which electrically insulates the at least two conductors and preferably the at least one electric resistance heating element.
A fuel cell system comprising: a fuel cell including an anode to which an anode fluid is supplied and a cathode to which a cathode fluid is supplied; a reformer forming the anode fluid by reforming a fuel through a reforming reaction; a combusting portion heating at least the reformer through a combustion in a manner that the reformer forms the anode fluid by reforming the fuel through the reforming reaction; a case accommodating the fuel cell, the reformer and the combusting portion; and an exhaust system discharging an exhaust gas discharged from at least one of the reformer, the combusting portion and the fuel cell to an outside of the case via a condenser, wherein the exhaust system includes an exhaust box and an exhaust pipe, the exhaust box includes an exhaust chamber provided at an inside of the case while having a hollow shape and an outside air communication hole providing communication between the exhaust chamber and an outside air, characterized in that the exhaust pipe includes a protruding end portion protruding from an outside of the exhaust box into an inside of the exhaust chamber of the exhaust box at the inside of the case, wherein the protruding end portion of the exhaust pipe includes a wind shield wall extending along a central axis of the protruding end portion of the exhaust pipe and an outlet from which the exhaust gas is blown out to the outside air, the wind shield wall is positioned between the outside air communication hole and the outlet, and the outlet is directed to a direction opposite to the outside air communication hole. a fuel cell including an anode to which an anode fluid is supplied and a cathode to which a cathode fluid is supplied; a reformer forming the anode fluid by reforming a fuel through a reforming reaction; a combusting portion heating at least the reformer through a combustion in a manner that the reformer forms the anode fluid by reforming the fuel through the reforming reaction; a case accommodating the fuel cell, the reformer and the combusting portion; and an exhaust system discharging an exhaust gas discharged from at least one of the reformer, the combusting portion and the fuel cell to an outside of the case via a condenser, wherein the exhaust system includes an exhaust box and an exhaust pipe, the exhaust box includes an exhaust chamber provided at an inside of the case while having a hollow shape and an outside air communication hole providing communication between the exhaust chamber and an outside air, characterized in that the exhaust pipe includes a protruding end portion protruding from an outside of the exhaust box into an inside of the exhaust chamber of the exhaust box at the inside of the case, wherein the protruding end portion of the exhaust pipe includes a wind shield wall extending along a central axis of the protruding end portion of the exhaust pipe and an outlet from which the exhaust gas is blown out to the outside air, the wind shield wall is positioned between the outside air communication hole and the outlet, and the outlet is directed to a direction opposite to the outside air communication hole.
A suture device configured to guide a suture thread, the suture device comprising: a sleeve including a sleeve body that defines a proximal end, a distal end spaced from the proximal end along a central axis, the sleeve defining an opening extending along the central axis between the proximal end and the distal end; a cannulated hook extending distal of the sleeve; and a plunger configured to be attached to the suture thread, the plunger being slidably disposed in the opening of the sleeve and movable distally from a first retracted position in which the plunger is disposed proximal with respect to the cannulated hook to a second advanced position whereby the plunger extends into the cannulated hook, wherein the plunger comprises a plunger body that extends along the central axis when the plunger is disposed in the opening of the sleeve, wherein the plunger defines a clamp, the clamp including a pair of surfaces that are configured to capture the suture thread so as to releasably attach the suture thread to the plunger, wherein the clamp defines a pair of opposed surfaces that define a gap therebetween, at least a portion of the gap sized less than a cross-sectional dimension of the suture thread such that the opposed walls compress the suture thread when the suture thread is disposed in the gap, and wherein the opposed surfaces taper away from each other along a direction from a periphery of the plunger body towards the central axis such that the clamp is configured to capture the suture thread. a sleeve including a sleeve body that defines a proximal end, a distal end spaced from the proximal end along a central axis, the sleeve defining an opening extending along the central axis between the proximal end and the distal end; a cannulated hook extending distal of the sleeve; and a plunger configured to be attached to the suture thread, the plunger being slidably disposed in the opening of the sleeve and movable distally from a first retracted position in which the plunger is disposed proximal with respect to the cannulated hook to a second advanced position whereby the plunger extends into the cannulated hook, wherein the plunger comprises a plunger body that extends along the central axis when the plunger is disposed in the opening of the sleeve, wherein the plunger defines a clamp, the clamp including a pair of surfaces that are configured to capture the suture thread so as to releasably attach the suture thread to the plunger, wherein the clamp defines a pair of opposed surfaces that define a gap therebetween, at least a portion of the gap sized less than a cross-sectional dimension of the suture thread such that the opposed walls compress the suture thread when the suture thread is disposed in the gap, and wherein the opposed surfaces taper away from each other along a direction from a periphery of the plunger body towards the central axis such that the clamp is configured to capture the suture thread.
A method of making an optical fiber comprising: drawing an optical fiber from a preform; applying a coating composition to said optical fiber; said coating composition comprising: a first radiation-curable component; a photoinitiator; and a UV absorber; and curing said coating composition, said curing including exposing said coating composition to light provided by an LED, said LED having a peak emission wavelength in the range from 360 nm - 410 nm; wherein the ratio of the absorbed intensity of said UV absorber in said composition to the absorbed intensity of said photoinitiator in said composition at a wavelength in the range from 360 nm-410 nm is less than 7.5; and wherein the method further comprises applying a secondary coating composition to the optical fiber over the cured coating composition; and curing the secondary coating with an Hg lamp. drawing an optical fiber from a preform; applying a coating composition to said optical fiber; said coating composition comprising: a first radiation-curable component; a photoinitiator; and a UV absorber; and a first radiation-curable component; a photoinitiator; and a UV absorber; and curing said coating composition, said curing including exposing said coating composition to light provided by an LED, said LED having a peak emission wavelength in the range from 360 nm - 410 nm; wherein the ratio of the absorbed intensity of said UV absorber in said composition to the absorbed intensity of said photoinitiator in said composition at a wavelength in the range from 360 nm-410 nm is less than 7.5; and wherein the method further comprises applying a secondary coating composition to the optical fiber over the cured coating composition; and curing the secondary coating with an Hg lamp.
Network comprising at least one access point (AP1, AP2) and one access controlling node (WSN, AS), the access points making use of the IAPP protocol for inter AP communication, wherein at least one station is adapted to associate with the access points (AP1, AP2), whereby the identity of the station can be approved by the access controlling node, wherein the access controlling node is adapted to monitor whether a given station is having access to any of a given subset of access points and co monitor an account relating to the given station being associated with a given access point of the subset of access points, and wherein, if detecting that the account relating to the given station is zero or if the user of the station has been idle for a given length of time, the at least one access-controlling node (AS; WSN) being an authentication server connected to the Internet or a gateway node is adapted to issue at least one IAPP message causing the AP of the subset with which the station is currently associated to disassociate the given station without effectuating handover to another AP and thereby terminating access for the given station.
A medical device, comprising: a sheath having a proximal end and a distal end; a basket (10; 50; 70) for removing material from a body, the basket having a distal end, a proximal end, a longitudinal axis, a collapsed position where the basket is enclosed within the sheath, and an expanded position where the basket extends from the distal end of the sheath; and wherein the basket includes at least one leg (72A-72D) having a first portion twisting in a first spiral direction about the longitudinal axis and a second portion twisting in a second spiral direction about the longitudinal axis, the second spiral direction being opposite of the first spiral direction; and wherein the basket includes a distal basket portion and a proximal basket portion, the distal basket portion including at least three legs (72A-D; 52A-B; 54A-B), and wherein the legs of the distal basket portion merge to form two legs in the proximal basket portion. a sheath having a proximal end and a distal end; a basket (10; 50; 70) for removing material from a body, the basket having a distal end, a proximal end, a longitudinal axis, a collapsed position where the basket is enclosed within the sheath, and an expanded position where the basket extends from the distal end of the sheath; and wherein the basket includes at least one leg (72A-72D) having a first portion twisting in a first spiral direction about the longitudinal axis and a second portion twisting in a second spiral direction about the longitudinal axis, the second spiral direction being opposite of the first spiral direction; and wherein the basket includes a distal basket portion and a proximal basket portion, the distal basket portion including at least three legs (72A-D; 52A-B; 54A-B), and wherein the legs of the distal basket portion merge to form two legs in the proximal basket portion.
An insulated passive solar house, building or skyscraper system (2500, 2600, 2700, 2800, 2900, 3000, 3100, 3200, 3300, 3500, 3600, 3700) with integrated aquaponics, greenhouse, and mushroom cultivation, comprising: an insulated passive solar house, building or skyscraper with a glazing on a sun facing side at an angle to maximize winter sunlight, and housing: a fish tank housed within the passive solar house, building or skyscraper; a plant growing area housed within the passive solar house, building or skyscraper; a mushroom growing area housed within the passive solar house, building or skyscraper; a shop, apartment or office area housed within the passive solar house, building or skyscraper; a water wall thermal mass housed within the passive solar house, building or skyscraper; and a natural air ventilation system housed within the passive solar house, building or skyscraper, wherein the water wall is disposed between the plant growing area, and the mushroom growing area, the fish tank, and the shop, apartment or office area, wherein the natural air ventilation system is configured to provide misted air into the mushroom growing area, the fish tank, and the shop, apartment or office area, and wherein O2 generated by the plant growing area is received by the natural air ventilation system and provided to the mushroom growing area, the fish tank, and the shop, apartment or office area, and CO2 generated by the mushroom growing area, the fish tank, and the shop, apartment or office area is provided to the plant growing area.
An integrated circuit device, preferably a microcontroller, for determining a process variable based upon a process sensor having a current output, said integrated circuit device comprising: at least one external port pin directly configured to be connected with the process sensor; an analog-to digital converter; a sample and hold capacitor associated with the ADC; a timer; a first switch coupling between the sample and hold capacitor and the external port pin, and controlled by the timer; a second switch coupled to the sample and hold capacitor, wherein the second switch is adapted for discharging the sample and hold capacitor, a control unit for controlling said ADC, timer, and said second switch, wherein the control unit is configured to control the second switch to discharge the sample capacitor and after the capacitor has been discharged, to control the second switch to be opened and the timer to start running thereby closing the first switch, wherein the timer controls the first switch to be opened after a predetermined time period whereupon the control unit controls the ADC to start an analog-to-digital conversion converting a voltage across said sample and hold capacitor to a digital value.
An isolator for isolating a device driven by an engine via an endless drive member, comprising: a shaft adapter that is connectable with a shaft of the device, the shaft adapter defining an isolator axis; a rotary drive member being a pulley that is engageable with the endless drive member; a first isolation spring arrangement that is positioned to transfer torque between the shaft adapter and an intermediate drive member; and a second isolation spring arrangement that is positioned to transfer torque between the intermediate member and the rotary drive member, wherein over a first range of relative angular movement between the rotary drive member and the shaft adapter the first and second isolation spring arrangements (16, 18) provide a first finite overall spring rate for the isolator, over a second range of relative angular movement between the rotary drive member and the shaft adapter the first and second isolation spring arrangements (16, 18) provide a second finite overall spring rate for the isolator that is higher than the first overall spring rate, and wherein over a third range of relative angular movement between the rotary drive member and the shaft adapter the first and second isolation spring arrangements (16, 18) provide a third finite overall spring rate for the isolator that is higher than the second overall spring rate. a shaft adapter that is connectable with a shaft of the device, the shaft adapter defining an isolator axis; a rotary drive member being a pulley that is engageable with the endless drive member; a first isolation spring arrangement that is positioned to transfer torque between the shaft adapter and an intermediate drive member; and a second isolation spring arrangement that is positioned to transfer torque between the intermediate member and the rotary drive member, wherein over a first range of relative angular movement between the rotary drive member and the shaft adapter the first and second isolation spring arrangements (16, 18) provide a first finite overall spring rate for the isolator, over a second range of relative angular movement between the rotary drive member and the shaft adapter the first and second isolation spring arrangements (16, 18) provide a second finite overall spring rate for the isolator that is higher than the first overall spring rate, and wherein over a third range of relative angular movement between the rotary drive member and the shaft adapter the first and second isolation spring arrangements (16, 18) provide a third finite overall spring rate for the isolator that is higher than the second overall spring rate.