mhurhangee/ep-ind-claims huggingface dataset:
A method of assembling and conditioning an infusion pump assembly for medication dispensing before dispensing of a medication commences; wherein the infusion pump reservoir assembly, comprises: a medicament reservoir including a reservoir barrel with an inner surface; a plunger moveable within the medicament reservoir in a dispensing direction from a full position and including a dynamic seal that is in contact with the inner surface of the reservoir barrel and a rear surface that faces in a direction opposite to the dispensing direction; and a static face seal that engages the rear surface and a reservoir assembly support block surface, wherein the static face seal does not need to change position in order for the plunger to move out of the full position; said method comprising the step of: disengaging the static face seal acting between the rear surface and a surface in a medicament reservoir assembly in the infusion pump in response to movement in a dispensing direction of the plunger within a reservoir barrel from a full position while maintaining contact between the dynamic seal associated with the plunger and an inner surface of the reservoir barrel in response to movement in the dispensing direction of the plunger within a reservoir barrel from the full position. a medicament reservoir including a reservoir barrel with an inner surface; a plunger moveable within the medicament reservoir in a dispensing direction from a full position and including a dynamic seal that is in contact with the inner surface of the reservoir barrel and a rear surface that faces in a direction opposite to the dispensing direction; and a static face seal that engages the rear surface and a reservoir assembly support block surface, wherein the static face seal does not need to change position in order for the plunger to move out of the full position; said method comprising the step of: disengaging the static face seal acting between the rear surface and a surface in a medicament reservoir assembly in the infusion pump in response to movement in a dispensing direction of the plunger within a reservoir barrel from a full position while maintaining contact between the dynamic seal associated with the plunger and an inner surface of the reservoir barrel in response to movement in the dispensing direction of the plunger within a reservoir barrel from the full position.
Pressure sensor module for determining the pressure of a measurement medium, comprising a sensor chip, a housing with a pressure nozzle, and a plug part for electrically connecting the pressure sensor module, wherein plug-in contacts which are electrically connected to the sensor chip are provided in the plug part, wherein the measurement medium can be applied to the sensor chip by the pressure nozzle, wherein the pressure nozzle is at least partially manufactured from a light metal, wherein the sensor chip is held by an intermediate carrier, characterized in that the intermediate carrier is connected to the housing by an interlocking and cohesive connection, wherein the interlocking connection comprises a clamping connection, wherein the clamping connection is produced by a deformation of the housing material, wherein the connection between the intermediate carrier and the housing is pressure-tight.
A light route control member comprising: a first substrate; a first electrode disposed on an upper surface of the first substrate; a second substrate disposed on the first substrate; a second electrode disposed on a lower surface of the second substrate; and a light conversion part disposed between the first electrode and the second electrode, and having a quadrangular shape defining a first direction and a second direction, wherein the first direction is defined as a long side direction of the light conversion part, and the second direction is defined as a short side direction of the light conversion part, wherein the light conversion part includes a partition wall part and a receiving part that are alternately disposed in the first direction, wherein the receiving part is driven as a light blocking part in a first mode and blocks light provided at a specific viewing angle, and wherein the receiving part is driven as a light transmitting part in a second mode, and light is transmitted through both the partition wall part and the receiving part, characterized in that the receiving part includes a plurality of cells spaced apart from each other in the second direction, that at least one of the cells includes a first inner surface and a second inner surface connected to each other, that at least one of the first inner surface and the second inner surface extends in a direction different from the first direction and the second direction, and that the first inner surface and the second inner surface are inclined at an angle of 35 degrees to 55 degrees or 125 degrees to 145 degrees. a first substrate; a first electrode disposed on an upper surface of the first substrate; a second substrate disposed on the first substrate; a second electrode disposed on a lower surface of the second substrate; and a light conversion part disposed between the first electrode and the second electrode, and having a quadrangular shape defining a first direction and a second direction, wherein the first direction is defined as a long side direction of the light conversion part, and the second direction is defined as a short side direction of the light conversion part, wherein the light conversion part includes a partition wall part and a receiving part that are alternately disposed in the first direction, wherein the receiving part is driven as a light blocking part in a first mode and blocks light provided at a specific viewing angle, and wherein the receiving part is driven as a light transmitting part in a second mode, and light is transmitted through both the partition wall part and the receiving part, characterized in that the receiving part includes a plurality of cells spaced apart from each other in the second direction, that at least one of the cells includes a first inner surface and a second inner surface connected to each other, that at least one of the first inner surface and the second inner surface extends in a direction different from the first direction and the second direction, and that the first inner surface and the second inner surface are inclined at an angle of 35 degrees to 55 degrees or 125 degrees to 145 degrees.
A method of generating a non-equilibrium solution of peracetic acid, comprising: a. providing water; b. introducing a hydrogen peroxide-triacetin solution to the water; c. mixing the hydrogen peroxide-triacetin solution and the water to form a mixture; d. adding an aqueous source of an alkali metal or earth alkali metal hydroxide to the mixture; and e. forming a reaction medium comprising a non-equilibrium solution of peracetic acid, characterized in that the aqueous source of alkali metal or earth alkali metal hydroxide is 1.82% to 7.28% weight sodium hydroxide. a. providing water; b. introducing a hydrogen peroxide-triacetin solution to the water; c. mixing the hydrogen peroxide-triacetin solution and the water to form a mixture; d. adding an aqueous source of an alkali metal or earth alkali metal hydroxide to the mixture; and e. forming a reaction medium comprising a non-equilibrium solution of peracetic acid, characterized in that the aqueous source of alkali metal or earth alkali metal hydroxide is 1.82% to 7.28% weight sodium hydroxide.
A reinforcement structure comprising a plurality of woven cords, each woven cord comprising materials with melting points in a range of from 130°C to 230°C or from 130°C to 175°C, characterized in that each woven cord has a width in a range of from 0.5 mm to 1.6 mm and a thickness in a range of from 0.2 mm to 0.8 mm.
A method for the continuous production of a thin-walled, perforated metal hollow profile with one optical fiber conductor or several optical fiber conductors mounted therein comprising: - Feeding a flat metal strip with a first feeding speed to a forming device (3, 7), - continuous forming of the fed flat metal strip into a metal hollow profile with a slot running in the longitudinal direction, wherein two opposite edges of the metal strip formed into the metal hollow profile abut flush against one another in a contact area extending in the longitudinal direction of the metal hollow profile and are continuously welded to one another in a welding device, - taking off the welded metal hollow profile from the welding area, characterized in that the method also comprises: - perforating the welded metal hollow profile by means of drilling device arranged in the take-off direction downstream of the welding device at a perforation point, - positioning a guide or protective tube running under the welding area and extending into the welded and perforated metal hollow profile in the take-off direction to behind of the perforation point, - feeding an optical fiber conductor or several optical fiber conductors from a fiber unwinder or several fiber unwinders via the guide or protective tube, so that the optical fiber conductor or the optical fiber conductors exits or exit from the guide or protective tube in the take-off direction behind the perforation point and is or are introduced into the welded and perforated metal hollow profile, and - receiving the welded and perforated metal hollow profile with the optical fiber conductor or fiber conductors mounted therein in a receiving device. - Feeding a flat metal strip with a first feeding speed to a forming device (3, 7), - continuous forming of the fed flat metal strip into a metal hollow profile with a slot running in the longitudinal direction, wherein two opposite edges of the metal strip formed into the metal hollow profile abut flush against one another in a contact area extending in the longitudinal direction of the metal hollow profile and are continuously welded to one another in a welding device, - taking off the welded metal hollow profile from the welding area, - perforating the welded metal hollow profile by means of drilling device arranged in the take-off direction downstream of the welding device at a perforation point, - positioning a guide or protective tube running under the welding area and extending into the welded and perforated metal hollow profile in the take-off direction to behind of the perforation point, - feeding an optical fiber conductor or several optical fiber conductors from a fiber unwinder or several fiber unwinders via the guide or protective tube, so that the optical fiber conductor or the optical fiber conductors exits or exit from the guide or protective tube in the take-off direction behind the perforation point and is or are introduced into the welded and perforated metal hollow profile, and - receiving the welded and perforated metal hollow profile with the optical fiber conductor or fiber conductors mounted therein in a receiving device.
A multi-link hinge (101, 301), in particular for refrigerator doors, with a fastening element (102, 302) which can be secured to a furniture body and is connected to a pivotable door bearing (111, 311) via a plurality of levers (103, 104, 105, 110; 303, 304, 305, 310) pivotally connected to one another, the door bearing (111, 311) being pre-tensioned into a closed position via a spring (115, 315), whereby a linear damper (118, 318) is provided that dampens a closing movement of the door bearing (111, 311), said linear damper (118, 318) being arranged within the multi-link hinge (101, 301), wherein the damper (118, 318) is effective only over a portion of the pivot range of the door bearing (111, 311), characterized in that the damper (118, 318) is fixed rotatably at one side and is held on the opposite side at a pivotable driver (122, 327), said driver (122, 327) being moveable to a stop during a closing operation, so that the driver (122, 327) enables a freewheeling movement of the damper (118, 318) in an opening range wherein the damper is fixed at one side to a rotatable driver disk, the rotation range of which is limited by a stop, whereby the damper (118, 318) is effective after the driver (122, 327) abuts the stop.
A method comprising, performed by at least one apparatus: obtaining a set of radio data comprising signal strength related values for radio signals transmitted by a transmitter (340, 540) with an association of each signal strength related value with a representation of a geographical location; applying a frequency transform to the obtained set of radio data to obtain transform coefficients, each transform coefficient comprising a transform index and an associated transform value; selecting a subset of transform indices having more significant transform values than the remaining transform indices; characterized in that the method further comprises: compressing the selected transform indices by encoding each selected transform index exploiting a probability of occurrence of an index value of a respective transform index. obtaining a set of radio data comprising signal strength related values for radio signals transmitted by a transmitter (340, 540) with an association of each signal strength related value with a representation of a geographical location; applying a frequency transform to the obtained set of radio data to obtain transform coefficients, each transform coefficient comprising a transform index and an associated transform value; selecting a subset of transform indices having more significant transform values than the remaining transform indices;
A method for implementing communication, comprising obtaining, by a first terminal device in a second network, a network identifier, PAN ID, of a first network from a network device (102; 104; 201) in the first network; determining, by the first terminal device, based on the network identifier, a broadcast address for broadcast communication in the second network; in response to determining an alarm event, broadcasting, by the first terminal device, in the second network, a message indicating the alarm event, using the broadcast address; the method being characterised by further comprising: receiving a request for the broadcast address from a second terminal device in the second network, the first terminal device and the second terminal device being paired devices; and transmitting the broadcast address to the second terminal device, for the second terminal device to receive the message indicating the alarm event, using the broadcast address. obtaining, by a first terminal device in a second network, a network identifier, PAN ID, of a first network from a network device (102; 104; 201) in the first network; determining, by the first terminal device, based on the network identifier, a broadcast address for broadcast communication in the second network; in response to determining an alarm event, broadcasting, by the first terminal device, in the second network, a message indicating the alarm event, using the broadcast address; the method being characterised by further comprising: receiving a request for the broadcast address from a second terminal device in the second network, the first terminal device and the second terminal device being paired devices; and transmitting the broadcast address to the second terminal device, for the second terminal device to receive the message indicating the alarm event, using the broadcast address. receiving a request for the broadcast address from a second terminal device in the second network, the first terminal device and the second terminal device being paired devices; and transmitting the broadcast address to the second terminal device, for the second terminal device to receive the message indicating the alarm event, using the broadcast address.
A system for delivering cardiac resynchronization therapy, the system comprising: a pacing device configured for implantation within a patient, the pacing device comprising: a plurality of electrodes; signal generation circuitry configured to deliver ventricular pacing via the plurality of electrodes; and a sensor configured to produce a signal that indicates mechanical activity of the heart; and processing circuitry configured to: identify one or more features of a cardiac contraction within the signal; determine whether the cardiac contraction is a fusion beat based on the one or more features; and control a timing interval for delivery of the ventricular pacing based on the determination; and wherein an adjustment of the timing interval results in an adjustment of at least one of an A-V interval between an atrial event and delivery of a ventricular pacing pulse by the pacing device, or a V-V interval between a ventricular event and delivery of the ventricular pacing pulse by the pacing device, and further comprising another implantable medical device, wherein the other implantable medical device is configured to: detect the at least one of the atrial event or the ventricular event; and transmit a signal to the pacing device to control the pacing device to deliver the ventricular pacing pulse in response to the detection of the at least one of the atrial event or the ventricular event. a pacing device configured for implantation within a patient, the pacing device comprising: a plurality of electrodes; signal generation circuitry configured to deliver ventricular pacing via the plurality of electrodes; and a sensor configured to produce a signal that indicates mechanical activity of the heart; and a plurality of electrodes; signal generation circuitry configured to deliver ventricular pacing via the plurality of electrodes; and a sensor configured to produce a signal that indicates mechanical activity of the heart; and processing circuitry configured to: identify one or more features of a cardiac contraction within the signal; determine whether the cardiac contraction is a fusion beat based on the one or more features; and control a timing interval for delivery of the ventricular pacing based on the identify one or more features of a cardiac contraction within the signal; determine whether the cardiac contraction is a fusion beat based on the one or more features; and control a timing interval for delivery of the ventricular pacing based on the determination; and detect the at least one of the atrial event or the ventricular event; and transmit a signal to the pacing device to control the pacing device to deliver the ventricular pacing pulse in response to the detection of the at least one of the atrial event or the ventricular event.
A dual material cable tie comprising: a tail (14, 114, 214) formed from a first material and located at a first end of the cable tie; a head (12, 112, 212) located at a second end of the cable tie and having a passage extending from a first end of the head (12, 112, 212) to a second end of the head (12, 112, 212) for receiving the tail (14, 114, 214), a first portion including a pawl (32, 132) located in the passage, and a second portion, wherein the second portion comprises an exterior surface of the head (12, 112, 212); and a strap formed from the first material and extending between the tail (14, 114, 214) and the head (12, 112, 212), wherein the tail (14, 114, 214), the strap, and the first portion of the head (12, 112, 212) including the pawl (32, 132) are made from the first material, characterized in that the second portion of the head (12, 112, 212) is made from a second material, wherein the second material is stiffer and/or harder than the first material, and the head allows the tail (14, 114, 214) to extend outwardly from the first and second ends of the head (12, 112, 212). a tail (14, 114, 214) formed from a first material and located at a first end of the cable tie; a head (12, 112, 212) located at a second end of the cable tie and having a passage extending from a first end of the head (12, 112, 212) to a second end of the head (12, 112, 212) for receiving the tail (14, 114, 214), a first portion including a pawl (32, 132) located in the passage, and a second portion, wherein the second portion comprises an exterior surface of the head (12, 112, 212); and a strap formed from the first material and extending between the tail (14, 114, 214) and the head (12, 112, 212), wherein the tail (14, 114, 214), the strap, and the first portion of the head (12, 112, 212) including the pawl (32, 132) are made from the first material, characterized in that the second portion of the head (12, 112, 212) is made from a second material, wherein the second material is stiffer and/or harder than the first material, and the head allows the tail (14, 114, 214) to extend outwardly from the first and second ends of the head (12, 112, 212).
A method of controlling a laundry machine including a tub, a drum rotatably arranged in the tub to accommodate an object and provided with a plurality of through holes on an outer circumferential surface thereof, an induction heater provided to the tub, and a spray nozzle provided in the tub, the laundry machine being configured to perform a steam operation, wherein the steam operation comprises: a heating operation of heating an outer heating surface of the drum facing the induction heater by driving the induction heater; a steam generation operation of spraying, through the spray nozzle, water toward the outer heating surface of the drum heated in the heating operation such that steam is generated in a space between the tub and the drum; and a steam supply operation of rotating the drum such that the steam is introduced into the drum through the plurality of through holes of the drum. a heating operation of heating an outer heating surface of the drum facing the induction heater by driving the induction heater; a steam generation operation of spraying, through the spray nozzle, water toward the outer heating surface of the drum heated in the heating operation such that steam is generated in a space between the tub and the drum; and a steam supply operation of rotating the drum such that the steam is introduced into the drum through the plurality of through holes of the drum.
A microwave oven or a multifunctional oven with microwave heating function, wherein - the oven comprises an oven cavity with an open front side, - the oven comprises a front frame enclosing at least partially a front portion of the oven cavity, - the oven cavity and the front frame are made of metal sheet, - the front frame is connected to the oven cavity by a number of fixing elements, - a gap is formed between the oven cavity and the front frame, - the gap encloses at least partially the front portion of the oven cavity and the front frame encloses the gap in turn, - the gap is at least partially filled by a gasket, - the oven comprises an oven door covering the open front side of the oven cavity and the gap in a closed state of said oven door, and - at least a part of the gasket comprises one or more materials having low heat conductivity, so that the front frame is thermally decoupled from the oven cavity by said part of the gasket and/or by the gap. - the oven comprises an oven cavity with an open front side, - the oven comprises a front frame enclosing at least partially a front portion of the oven cavity, - the oven cavity and the front frame are made of metal sheet, - the front frame is connected to the oven cavity by a number of fixing elements, - a gap is formed between the oven cavity and the front frame, - the gap encloses at least partially the front portion of the oven cavity and the front frame encloses the gap in turn, - the gap is at least partially filled by a gasket, - the oven comprises an oven door covering the open front side of the oven cavity and the gap in a closed state of said oven door, and - at least a part of the gasket comprises one or more materials having low heat conductivity, so that the front frame is thermally decoupled from the oven cavity by said part of the gasket and/or by the gap.