mhurhangee/ep-ind-claims huggingface dataset:
A guide wire (1; 2; 3) comprising: a core shaft; and a coil body that covers the core shaft and includes a distal-end coil (30; 32; 33) and a proximal-end coil (40; 42; 43), wherein the distal-end coil (30; 32; 33) has a plurality of turns (30a, 30b, 30c) being arranged axially in succession and including in the order from a proximal end towards a distal end of the distal-end coil (30; 32; 33) at least a first turn, a second turn and a third turn, the proximal-end coil (40; 42; 43) has a plurality of turns (40a, 40b, 40c) being arranged axially in succession and including in the order from a distal end towards a proximal end of the proximal-end coil (40; 42; 43) at least a first turn and a second turn, and the distal-end coil (30; 32; 33) and the proximal-end coil (40; 42; 43) are connected to each other with alternately disposed turns (30a, 30b, 30c, 40a, 40b, 40c; 32a, 32b, 32c, 42a, 42b, 42c; 33a, 33b, 33c, 43a, 43b, 43c) such that the first turn (40a; 42a; 43a) of the proximal-end coil (40; 42; 43) is clamped by the second turn (30b; 32b; 33b) and third turn (30a; 32a; 33a) of the distal-end coil (30; 32; 33), and the second turn (40b; 42b; 43b) of the proximal-end coil (40; 42, 43) is in contact with a distal-end side of the first turn (30c; 32c; 33c) of the distal-end coil (30; 32; 33), characterized in that a gap is provided between the second turn (40b; 42b; 43b) of the proximal-end coil (40; 42; 43) and the second turn (30b; 32b; 33b) of the distal-end coil (30; 32; 33). a core shaft; and a coil body that covers the core shaft and includes a distal-end coil (30; 32; 33) and a proximal-end coil (40; 42; 43), wherein the distal-end coil (30; 32; 33) has a plurality of turns (30a, 30b, 30c) being arranged axially in succession and including in the order from a proximal end towards a distal end of the distal-end coil (30; 32; 33) at least a first turn, a second turn and a third turn, the proximal-end coil (40; 42; 43) has a plurality of turns (40a, 40b, 40c) being arranged axially in succession and including in the order from a distal end towards a proximal end of the proximal-end coil (40; 42; 43) at least a first turn and a second turn, and the distal-end coil (30; 32; 33) and the proximal-end coil (40; 42; 43) are connected to each other with alternately disposed turns (30a, 30b, 30c, 40a, 40b, 40c; 32a, 32b, 32c, 42a, 42b, 42c; 33a, 33b, 33c, 43a, 43b, 43c) such that the first turn (40a; 42a; 43a) of the proximal-end coil (40; 42; 43) is clamped by the second turn (30b; 32b; 33b) and third turn (30a; 32a; 33a) of the distal-end coil (30; 32; 33), and the second turn (40b; 42b; 43b) of the proximal-end coil (40; 42, 43) is in contact with a distal-end side of the first turn (30c; 32c; 33c) of the distal-end coil (30; 32; 33), characterized in that a gap is provided between the second turn (40b; 42b; 43b) of the proximal-end coil (40; 42; 43) and the second turn (30b; 32b; 33b) of the distal-end coil (30; 32; 33).
Suction muffler for a hermetic refrigeration compressor, the suction muffler comprising an inlet, so that refrigerant can flow into the suction muffler, and an outlet, so that refrigerant can flow out from the suction muffler, the suction muffler further comprising two damping chambers (5, 6) for sound damping, where the two damping chambers (5, 6) each has a floor (8, 9) and where a wall element is provided in order to separate the two damping chambers (5, 6) from each other for the refrigerant in the region of their floors (8, 9), characterized in that in the region of the wall element at least one siphon segment connecting the two floors (8, 9) is disposed, in order to receive oil in an operating position of the suction muffler, where the at least one siphon segment connects the two damping chambers (5, 6) to each other for the oil in siphon fashion.
Method of activating a wireless mobile station without user interaction, the method comprising: activating a mobile station by establishing a mobile terminated call, MTC, communication link to the mobile station wherein the establishing of the MTC communication link is performed without sending an assignment command message (17, 27a) to the mobile station, wherein establishing the MTC communication link further includes a call control process, wherein the call control process is adapted to control the connection to the mobile station by sending a setup signal (15, 26a) to the mobile station which causes the mobile station to confirm a call request whilst blocking an assignment process, characterised in that the setup signal is modified not to send the parameter SIGNAL.
A pressure regulator for a shock absorber valve, in which the pressure regulator comprises an axially movable first valve part and a first seat, which are arranged in a valve housing, wherein the first valve part is arranged to adjust a flow opening at the first seat, wherein the flow opening is arranged to restrict a damping medium flow (q) and the flow opening size (s) of which is determined by a force balance on the first valve part principally or partially created by the sum of an actuating force and the force (Fs) from a spring arrangement comprising a first spring having a first spring constant and a second spring having a second spring constant acting upon the movable valve part counter to the action of a counterholding pressure regulator force, wherein the counterholding pressure regulator force is determined by spring characteristics of both the first and the second spring (5, 6), in which the first spring interacts with the actuating force throughout stroke and the second spring has a limited working range defined by the possible axial deformability of the second spring such that it only interacts with the actuating force during an initial stroke.
An apparatus for measuring pressure of fluid in a shunt, the apparatus comprising a distensible member (12, 22, 32, 42, 52) arranged adjacent to a graduated scale (14, 24, 34, 44, 54) and both the distensible member (12, 22, 32, 42, 52) and the scale comprise radiopaque markers (15, 25, 35, 45, 55), wherein the fluid in the shunt acts directly on distensible member and the distensible member is distensible in the direction of the scale, and wherein the apparatus is attachable to, or incorporated into, the shunt at a location either at or upstream of a shunt valve forming part of the shunt.
Method for producing an information sheet of an identity document, said information sheet comprising at least one information layer (32, 34) and a hinge, said hinge being an assembly of bonding layers comprising a hot-melt layer sandwiched between two woven layers (40, 42) having meshes, the hot-melt layer and the woven layers (40, 42) being subjected to at least one laminating step at a laminating temperature so that the hot-melt layer is inserted into the meshes of the woven layers (40, 42) after the laminating step, the hot-melt layer being made of a first material which is deformable and/or meltable at the laminating temperature, the woven layers (40, 42) and/or the hot-melt layer having characteristics enabling a trade-off to be obtained between a satisfactory strength for the hinge and a flexibility for the hinge that allows an identity document incorporating it to maintain a closed state, the method being characterized in that each mesh of the woven layers (40, 42) has a square or rectangular cross section and has a smallest dimension of between 0.23 and 0.26 mm.
A razor handle for mounting a razor cartridge having at least one razor blade, which cartridge is pivotable about a cartridge pivot axis, comprising: a grip portion extending along a lengthwise extending axis; a cartridge mount portion, pivotally attached to the grip portion and rotatable about a cartridge mount portion pivot axis between a normal first position and a second position, and which cartridge mount portion pivot axis is substantially parallel to the cartridge pivot axis; and at least one biasing element is configured to apply a biasing force against the cartridge mount portion that biases the cartridge mount portion in the normal first position; characterized that the razor handle further comprises a lock mechanism selectively disposable in a lock position wherein the cartridge mount portion is prevented from rotating relative to the grip portion and at least one unlocked position wherein the cartridge mount portion is free to rotate relative to the grip portion. a grip portion extending along a lengthwise extending axis; a cartridge mount portion, pivotally attached to the grip portion and rotatable about a cartridge mount portion pivot axis between a normal first position and a second position, and which cartridge mount portion pivot axis is substantially parallel to the cartridge pivot axis; and at least one biasing element is configured to apply a biasing force against the cartridge mount portion that biases the cartridge mount portion in the normal first position; characterized that the razor handle further comprises a lock mechanism selectively disposable in a lock position wherein the cartridge mount portion is prevented from rotating relative to the grip portion and at least one unlocked position wherein the cartridge mount portion is free to rotate relative to the grip portion.
A method of detoxifying a coolant system containing a coolant liquid comprising water and ethylene glycol, which method comprises the steps of: (a) withdrawing a predetermined volume of the coolant liquid from the coolant system, the predetermined amount being from 8 to 15% of the volume of the coolant system; (b) replenishing the coolant system with a top-up mix comprising at least 90% by volume of a polyhydric alcohol having a boiling point above 150°C and reactivity as an alcohol dehydrogenase enzyme inhibitor, substantially all the remainder of the top-up mix comprising corrosion inhibitor, water and incidental ingredients, the amount of the top-up mix being at least 90% by volume of the predetermined volume withdrawn in step (a). (a) withdrawing a predetermined volume of the coolant liquid from the coolant system, the predetermined amount being from 8 to 15% of the volume of the coolant system; (b) replenishing the coolant system with a top-up mix comprising at least 90% by volume of a polyhydric alcohol having a boiling point above 150°C and reactivity as an alcohol dehydrogenase enzyme inhibitor, substantially all the remainder of the top-up mix comprising corrosion inhibitor, water and incidental ingredients, the amount of the top-up mix being at least 90% by volume of the predetermined volume withdrawn in step (a).
A mobile phone case comprising: a protective case element designed to cover a mobile phone; a housing element attached to the case element; a rechargeable battery located within the housing element; an external power port conductively coupled to the rechargeable battery, the external power port being configured for accepting power from an external power source, so as to recharge the rechargeable battery; an electronic cigarette element retained within the housing element and comprising a heating element conductively coupled to the rechargeable battery, the heating element being configured for heating a liquid into a vapor and a movable mouthpiece, comprising a tubular element, designed to allow a user to inhale said vapor through said mouthpiece; and a processor configured for routing power from the rechargeable battery to the heating element of the electronic cigarette element characterized in that the electronic cigarette element is coupled to the housing such that the mouthpiece comprising the tubular element can move between a retracted position and an extended position, wherein in the retracted position the mouthpiece is substantially encased by the housing, and wherein in the extended position a portion of the tubular element not encased by the housing allows a user to inhale said vapor through said tubular element with his mouth. a protective case element designed to cover a mobile phone; a housing element attached to the case element; a rechargeable battery located within the housing element; an external power port conductively coupled to the rechargeable battery, the external power port being configured for accepting power from an external power source, so as to recharge the rechargeable battery; an electronic cigarette element retained within the housing element and comprising a heating element conductively coupled to the rechargeable battery, the heating element being configured for heating a liquid into a vapor and a movable mouthpiece, comprising a tubular element, designed to allow a user to inhale said vapor through said mouthpiece; and a processor configured for routing power from the rechargeable battery to the heating element of the electronic cigarette element characterized in that the electronic cigarette element is coupled to the housing such that the mouthpiece comprising the tubular element can move between a retracted position and an extended position, wherein in the retracted position the mouthpiece is substantially encased by the housing, and wherein in the extended position a portion of the tubular element not encased by the housing allows a user to inhale said vapor through said tubular element with his mouth.
A transparent glass-ceramic of lithium aluminosilicate type containing a solid solution of β-quartz as its main crystalline phase, the composition of which, expressed in percentages by weight of oxides, comprises: · 63% to 67.5% of SiO 2; · 18% to 21% of Al 2 O 3; · 2% to 2.9% of Li 2 O; · 0 to 1.5% of MgO; · 1% to 3.2% of ZnO; · 0 to 4% of BaO; · 0 to 4% of SrO; · 0 to 2% of CaO; · 2% to 5% of TiO 2; · 0 to 3% of ZrO 2; · 0 to 1% of Na 2 O; · 0 to 1% of K 2 O; · 0 to 5% of P 2 O 5; with (0.74 MgO + 0.19 BaO + 0.29 SrO + 0.53 CaO + 0.48 Na 2 O + 0.32 K 2 O) / Li 2 O < 0.9; · optionally up to 2% of at least one fining agent; and · optionally up to 2% of at least one coloring agent. · 63% to 67.5% of SiO 2; · 18% to 21% of Al 2 O 3; · 2% to 2.9% of Li 2 O; · 0 to 1.5% of MgO; · 1% to 3.2% of ZnO; · 0 to 4% of BaO; · 0 to 4% of SrO; · 0 to 2% of CaO; · 2% to 5% of TiO 2; · 0 to 3% of ZrO 2; · 0 to 1% of Na 2 O; · 0 to 1% of K 2 O; · 0 to 5% of P 2 O 5; · optionally up to 2% of at least one fining agent; and · optionally up to 2% of at least one coloring agent.
A method for operating a passive radar, which passive radar comprises a receiving unit for receiving a signal reflected from a radar target, and comprises a processing unit, the receiving unit being used for processing the reflected signal, taking into account a reference signal for detecting a target, which reference signal is correlated with the reflected signal, - the receiving unit of the passive radar being spatially positioned in relation to a non-cooperative transmitter that is used for illuminating a target, such that the signal of the non-cooperative transmitter received directly by the receiving unit is only very weak, specifically in the range of the thermal noise limit or not present at all, - the reference signal being derived by means of alternative transmission paths (107, 108, 109) as opposed to by means of transmission, directly from the non-cooperative transmitter to the passive radar, and being made available to the processing unit, characterized in that the signal of the non-cooperative transmitter used for illuminating the target is the transmitted signal emitted by a radio transmitter, and the reference signal is derived by the passive radar receiving a signal by means of a further receiving unit, which signal has been picked up, before transmission, by the radio transmitter at the signal source associated with the radio transmitter, and has been transferred to the further receiving unit of the passive radar via one of the following further transmission channels (107, 109, 108): - signal transmission via the Internet; - signal transmission via satellite; - signal transmission via a cable. - the receiving unit of the passive radar being spatially positioned in relation to a non-cooperative transmitter that is used for illuminating a target, such that the signal of the non-cooperative transmitter received directly by the receiving unit is only very weak, specifically in the range of the thermal noise limit or not present at all, - the reference signal being derived by means of alternative transmission paths (107, 108, 109) as opposed to by means of transmission, directly from the non-cooperative transmitter to the passive radar, and being made available to the processing unit, - signal transmission via the Internet; - signal transmission via satellite; - signal transmission via a cable.
A method for manufacturing a LED chip component, comprising: a chip forming step performed by providing a LED chip including a base material, a light emitting film on the base material for generating light by photoemission, and an electrode unit connecting with and Ohm contacting the light emitting film for supplying power to the light emitting film; a chip setting step, wherein the LED chip is put and fixed onto a mounting surface of a temporary carrier substrate in such a way that a light emitting plane of the LED chip is facing the mounting surface of the temporary carrier substrate, a sacrificial layer forming step performed by forming a removable sacrificial layer on the mounting surface of the temporary carrier substrate and surrounding peripheral surfaces of the LED chip such that a thickness of the sacrificial layer in a direction normal to the mounting surface of the temporary carrier substrate decreases with increasing distance along the mounting surface of the carrier substrate from the LED chip, forming a smooth concave surface of the sacrificial layer; a heat sink substrate forming step performed by providing a heat sink substrate made of a material of high thermal conductivity coefficient disposed on and conforming to the smooth concave surface of the sacrificial layer, the heat sink substrate having a top surface substantially parallel to a bottom surface of the base material; and a sacrificial layer removing step performed by removing the sacrificial layer and the temporary carrier substrate to form the LED chip component with heat sink substrate. a chip forming step performed by providing a LED chip including a base material, a light emitting film on the base material for generating light by photoemission, and an electrode unit connecting with and Ohm contacting the light emitting film for supplying power to the light emitting film; a chip setting step, wherein the LED chip is put and fixed onto a mounting surface of a temporary carrier substrate in such a way that a light emitting plane of the LED chip is facing the mounting surface of the temporary carrier substrate, a sacrificial layer forming step performed by forming a removable sacrificial layer on the mounting surface of the temporary carrier substrate and surrounding peripheral surfaces of the LED chip such that a thickness of the sacrificial layer in a direction normal to the mounting surface of the temporary carrier substrate decreases with increasing distance along the mounting surface of the carrier substrate from the LED chip, forming a smooth concave surface of the sacrificial layer; a heat sink substrate forming step performed by providing a heat sink substrate made of a material of high thermal conductivity coefficient disposed on and conforming to the smooth concave surface of the sacrificial layer, the heat sink substrate having a top surface substantially parallel to a bottom surface of the base material; and a sacrificial layer removing step performed by removing the sacrificial layer and the temporary carrier substrate to form the LED chip component with heat sink substrate.
A camptothecin derivative, which is a CPT phosphite of Formula I, wherein R 1, R 2, R 3, and R 4 independently represent hydrogen, hydroxy, nitro, cyano, halo, carboxy, optionally substituted amino, a silicon-containing group, mono-ring aryloxy, C1-C6 alkoxy optionally substituted by hydroxy, nitro, cyano, halo or amino, C1-C6 alkanoyl optionally substituted by hydroxy, nitro, cyano, halo or amino, C1-C6 alkyl optionally substituted by hydroxy, nitro, cyano, halo or amino, or C 3 -C6 cycloalkyl optionally substituted by hydroxy, nitro, cyano, halo or amino; or R 1 and R 2 are connected via one to three other atoms to form a heterocycle, wherein the heterocycle is an N-heterocycle, S-heterocycle, O-heterocycle, or a heterocycle containing two heteroatoms which are selected from the group consisting of N, O and S, and R 3 and R 4 independently represent hydrogen, hydroxy, nitro, cyano, halo, carboxy, optionally substituted amino, a silicon-containing group, mono-ring aryloxy, C1-C6 alkoxy optionally substituted by hydroxy, nitro, cyano, halo or amino, C1-C6 alkanoyl optionally substituted by hydroxy, nitro, cyano, halo or amino, C1-C6 alkyl optionally substituted by hydroxy, nitro, cyano, halo or amino, or C 3 -C6 cycloalkyl optionally substituted by hydroxy, nitro, cyano, halo or amino; or R 1 and R 2 independently represent hydrogen, hydroxy, nitro, cyano, halo, carboxy, optionally substituted amino, a silicon-containing group, mono-ring aryloxy, C1-C6 alkoxy optionally substituted by hydroxy, nitro, cyano, halo or amino, C1-C6 alkanoyl optionally substituted by hydroxy, nitro, cyano, halo or amino, C1-C6 alkyl optionally substituted by hydroxy, nitro, cyano, halo or amino, or C 3 -C6 cycloalkyl optionally substituted by hydroxy, nitro, cyano, halo or amino, and R 3 and R 4 are oxygen atoms and connected via -O-(CH 2) n -O- to form a ring, wherein n is 1 or 2; or pharmaceutically acceptable salts thereof.
A transducer cover for use in an ultrasonic medical instrument having a transducer, said cover comprising: a chemical blocking layer of a generally cylindrical form made of a synthetic resin which is impermeable to water and chemicals, characterized in that said cover further comprising a vibration absorbing layer of a generally cylindrical form made of a synthetic resin having a vibration absorbing property, wherein said vibration absorbing layer and said chemical blocking layer are coaxially laminated, and capable of sealing arrangement over and around the transducer, wherein said vibration absorbing layer is an inner layer and said chemical blocking layer is an outer layer, with said chemical blocking layer sealingly attached to said vibration absorbing layer and said vibration absorbing layer capable of being sealingly attached to the transducer. a chemical blocking layer of a generally cylindrical form made of a synthetic resin which is impermeable to water and chemicals, characterized in that said cover further comprising a vibration absorbing layer of a generally cylindrical form made of a synthetic resin having a vibration absorbing property, wherein said vibration absorbing layer and said chemical blocking layer are coaxially laminated, and capable of sealing arrangement over and around the transducer, wherein said vibration absorbing layer is an inner layer and said chemical blocking layer is an outer layer, with said chemical blocking layer sealingly attached to said vibration absorbing layer and said vibration absorbing layer capable of being sealingly attached to the transducer.