mhurhangee/ep-ind-claims huggingface dataset:
Elevator system comprising: - an elevator car comprising one or more service appliances; - a hoistway in which the elevator car moves; - a feed source associated to/in a hoistway wall; - a travelling cable connected to the elevator car and to the hoistway wall, wherein the travelling cable comprises: - an electric conductor and/or a data carrier operatively connected at a first end to the feed source and at a second end to the service appliances of the elevator car; - a protective layer having an outer diameter and surrounding the electric conductor and/or data carrier; and - a sensor system (410, 420, 430, 440) configured for detecting a swaying amplitude of the travelling cable; - a processing and control unit associated to the sensor system (410, 420, 430, 440), the processing and control unit being configured for receiving swaying amplitude data from the sensor system (410, 420, 430, 440); characterized in that, the elevator system further comprises: - a fluid source associated to/in the hoistway wall; - the processing and control unit associated to the fluid source and being configured for operating the fluid source when the swaying amplitude exceeds a predetermined threshold; and that the travelling cable further comprises: - a duct connected at a first open end to the fluid source and at a second openable end to the elevator car. - an elevator car comprising one or more service appliances; - a hoistway in which the elevator car moves; - a feed source associated to/in a hoistway wall; - a travelling cable connected to the elevator car and to the hoistway wall, wherein the travelling cable comprises: - an electric conductor and/or a data carrier operatively connected at a first end to the feed source and at a second end to the service appliances of the elevator car; - a protective layer having an outer diameter and surrounding the electric conductor and/or data carrier; and - an electric conductor and/or a data carrier operatively connected at a first end to the feed source and at a second end to the service appliances of the elevator car; - a protective layer having an outer diameter and surrounding the electric conductor and/or data carrier; and - a sensor system (410, 420, 430, 440) configured for detecting a swaying amplitude of the travelling cable; - a processing and control unit associated to the sensor system (410, 420, 430, 440), the processing and control unit being configured for receiving swaying amplitude data from the sensor system (410, 420, 430, 440); - a fluid source associated to/in the hoistway wall; - the processing and control unit associated to the fluid source and being configured for operating the fluid source when the swaying amplitude exceeds a predetermined threshold; and that the travelling cable further comprises: - a duct connected at a first open end to the fluid source and at a second openable end to the elevator car.
Arrangement which has at least the following: - a first printed circuit board which has at least one first electrical contact region; - a second printed circuit board which has at least one second electrical contact region and a third electrical contact region that are electrically conductively connected to one another via a conductor track of the second printed circuit board; - a printed circuit board connector for electrically connecting the first contact region to the second contact region in order to transmit electrical energy with high current intensities, wherein - the printed circuit board connector has at least one metallic, integral pin contact (1, 1', 1"), which is a solid rotational part which is suitable for transmitting current intensities of more than 10 Amperes, wherein - the pin contact (1, 1', 1") has, at a first end, a connection region (12, 12') with which it can be soldered to the first contact region of the first printed circuit board and/or can be pressed into the first printed circuit board at the first contact region, and wherein - the pin contact (1, 1', 1'') has opposite, at a second end, a plug-in region having a slot running in the direction of the first end for mechanical fixing and for electrical contact connection of at least one second contact region arranged at the edge of a second printed circuit board, - wherein the slot has a constant width which corresponds to the thickness of the second printed circuit board. - a first printed circuit board which has at least one first electrical contact region; - a second printed circuit board which has at least one second electrical contact region and a third electrical contact region that are electrically conductively connected to one another via a conductor track of the second printed circuit board; - a printed circuit board connector for electrically connecting the first contact region to the second contact region in order to transmit electrical energy with high current intensities, wherein - the printed circuit board connector has at least one metallic, integral pin contact (1, 1', 1"), which is a solid rotational part which is suitable for transmitting current intensities of more than 10 Amperes, wherein - the pin contact (1, 1', 1") has, at a first end, a connection region (12, 12') with which it can be soldered to the first contact region of the first printed circuit board and/or can be pressed into the first printed circuit board at the first contact region, and wherein - the pin contact (1, 1', 1'') has opposite, at a second end, a plug-in region having a slot running in the direction of the first end for mechanical fixing and for electrical contact connection of at least one second contact region arranged at the edge of a second printed circuit board, - wherein the slot has a constant width which corresponds to the thickness of the second printed circuit board.
A parallel opening hinge comprising a first track, a second track and at least two pairs of pivotally connected crossing links (7, 9), wherein each pair of crossing links is mounted to the tracks (3, 5) via a fixed pivot (13, 17) and a movable pivot (15, 19) in each said first and second track, wherein a connector joins two movable pivots (15, 19) in a track such that the movable pivots (15, 19) move together, characterised in that the connector is situated and moves within said track (3, 5).
Method of waking up a base station of a cellular network, comprising the following steps: - said base station is placed partially on standby, and - an access point of a local wireless network detects the presence of a terminal in its coverage zone, and identifies said terminal, said method being characterized in that it furthermore comprises the following steps: - said access point sends a message signalling the presence of the terminal, said message containing an identifier of the terminal, - the base station receives said message, - the base station transmits to said cellular network the information according to which said terminal is situated in its coverage zone, and - the base station wakes up when it receives a communication from the cellular network destined for the terminal. - said base station is placed partially on standby, and - an access point of a local wireless network detects the presence of a terminal in its coverage zone, and identifies said terminal, said method being characterized in that it furthermore comprises the following steps: - said access point sends a message signalling the presence of the terminal, said message containing an identifier of the terminal, - the base station receives said message, - the base station transmits to said cellular network the information according to which said terminal is situated in its coverage zone, and - the base station wakes up when it receives a communication from the cellular network destined for the terminal. - said access point sends a message signalling the presence of the terminal, said message containing an identifier of the terminal, - the base station receives said message, - the base station transmits to said cellular network the information according to which said terminal is situated in its coverage zone, and - the base station wakes up when it receives a communication from the cellular network destined for the terminal.
An isolated retrocyclin polypeptide having antimicrobial or anti-retroviral activity, wherein said peptide is identical to SEQ ID NO: 1, or substantially similar to SEQ ID NO:1 in differing by one amino acid and having a sequence selected from SEQ ID NO:2, SEQ ID NO:3, SEQ ID NO:4, SEQ ID NO:5, and SEQ ID NO:6.
A top case arrangement for a vehicle, especially a motorcycle or a vehicle similar to a motorcycle, with a top case (11, 21) and a base support (12, 22) arranged beneath the top case (11, 21), wherein the base support (12, 22) is designed for connecting to a vehicle structure (19, 29), characterised in that the base support has two attachment portions (12a, 12b, 22b) for optionally attaching two armrests (18a, 18b) to the base support (12, 22), and in that the top case (11, 21) in the region of an underside (11a, 21a) has at least one indentation (13, 23) in which the two attachment portions (12a, 12b, 22b) are arranged.
An on-skin sensor system configured for transcutaneous glucose monitoring of a host, the system comprising: a sensor module housing comprising a channel and a groove that cuts across the channel; a glucose sensor (138a, 138b) having a first section configured for subcutaneous sensing and a second section mechanically coupled to the sensor module housing; and at least one leaf spring mechanically coupled to the sensor module housing and electrically coupled to the glucose sensor (138a, 138b), wherein the at least one leaf spring comprises a tab located in the groove to impede rotation of the at least one leaf spring, and wherein at least a portion of the second section of the glucose sensor is located in the channel wherein a portion of the leaf spring is located in the channel. a sensor module housing comprising a channel and a groove that cuts across the channel; a glucose sensor (138a, 138b) having a first section configured for subcutaneous sensing and a second section mechanically coupled to the sensor module housing; and at least one leaf spring mechanically coupled to the sensor module housing and electrically coupled to the glucose sensor (138a, 138b), wherein the at least one leaf spring comprises a tab located in the groove to impede rotation of the at least one leaf spring, and wherein at least a portion of the second section of the glucose sensor is located in the channel wherein a portion of the leaf spring is located in the channel.
An antiperspirant cosmetic composition for topical application to the skin comprising an effective amount of at least one antiperspirant active material, at least one gelling agent, at least one wax and at least one solvent for the at least one antiperspirant active material, wherein the at least one gelling agent is obtainable by the in-situ dehydrogenative coupling reaction of a mixture of a siloxane polymer with at least two hydroxy-functionalized terminal groups or hydroxy-functionalized side chains and a polyol with at least two hydroxyl groups which is a copolymerized hydroxyl functionalized vegetable or synthetic oil, a hydrosiloxane with at least two Si-H units and a catalyst comprising a metal selected from the transition metals of the VIII B group of the chemistry's periodic table.
Energy guiding device for supply lines, such as cables, hoses and other lines, particularly for supplying machines in the offshore sector that are used under water, e.g. for supplying drill heads that essentially drill vertically downwards, characterised in that the energy guiding device is designed as an energy guiding chain (1; 15), in that the energy guiding chain (1; 15) displays at least two parallel load strands (3; 16) with consecutively arranged straps (4; 17), in that the straps (4; 17) are made of flexible, water-resistant material and permanently connected to the adjacent straps via coupling elements (5; 18) to form a load strand (3; 16), in that at least one tension-resistant, water-resistant cable (6; 20), extending over the entire length of the energy guiding chain (1; 15), is guided through the load strands (3; 16), in that the cable (6; 20) or the cables lie in the neutral axis of the load strands (3; 16) and are fixed in this position, in that the load strands (3; 16) formed from straps (4; 17) and coupling elements (5; 18) are connected to each other by cross-members (7; 19) arranged at intervals, and in that the cross-members (7; 19) display holders for receiving the supply lines.
A heat exchanger unit comprising a first plate heat exchanger (2A, 2E, 2H, 2K) and a second plate heat exchanger (2B, 2F, 21, 2L) that is disposed in series in a predetermined flow direction of the first plate heat exchanger, with the heat exchanger unit being placed such that, when the heat exchanger unit works as an evaporator to heat a refrigerant, the refrigerant flows from the first plate heat exchanger to the second plate heat exchanger, and when the heat exchanger unit works as a condenser to cool the refrigerant, the refrigerant flows from the second plate heat exchanger to the first plate heat exchanger, wherein the first plate heat exchanger has a plurality of first refrigerant flow paths (4A, 4E, 4H, 4K), a first lower header portion (6A, 6E, 6H, 6K) and a first upper header portion (7A, 7E, 7H, 7K) for distributing and collecting the refrigerant that flows to the plurality of first refrigerant flow paths and causing the refrigerant to flow in the predetermined flow direction, and first gas-liquid mixing means (10A, 8A, 10H, 10K) for promoting gas-liquid mixing of the refrigerant in the first lower header portion when the heat exchanger unit heats the refrigerant, wherein the first gas-liquid mixing means is a means in which the pressure loss becomes larger the higher the gas-liquid mixing action becomes, the second plate heat exchanger has a plurality of second refrigerant flow paths (4B, 4F, 41, 4L), a second lower header portion (6B, 6F, 61, 6L) and a second upper header portion (7B, 7F, 71, 7L) for distributing and collecting the refrigerant that flows to the plurality of second refrigerant flow paths and causing the refrigerant to flow in the predetermined flow direction, characterized in that: the second plate heat exchanger has a second gas-liquid mixing means (10B, 8B, 8, 10L) for promoting gas-liquid mixing of the refrigerant in the second lower header portion when the heat exchanger unit heats the refrigerant, and the second gas-liquid mixing means is a means in which the pressure loss becomes larger the higher the gas-liquid mixing action becomes, wherein the first gas-liquid mixing means and the second gas-liquid mixing means are set such that the gas-liquid mixing action of the first gas-liquid mixing means is higher than the gas-liquid mixing action of the second gas-liquid mixing means. the second plate heat exchanger has a second gas-liquid mixing means (10B, 8B, 8, 10L) for promoting gas-liquid mixing of the refrigerant in the second lower header portion when the heat exchanger unit heats the refrigerant, and the second gas-liquid mixing means is a means in which the pressure loss becomes larger the higher the gas-liquid mixing action becomes, wherein the first gas-liquid mixing means and the second gas-liquid mixing means are set such that the gas-liquid mixing action of the first gas-liquid mixing means is higher than the gas-liquid mixing action of the second gas-liquid mixing means.
A compound of formula: X 1 - -Arg-X 2 - -Arg-NH 2 wherein: X 1 is selected from the group consisting of Ac- -Tyr, phenylacetyl and 3-phenylpropionyl; X 2 is selected from the group consisting of -Glu, -Ser and Aib, wherein Aib is α-methyl-Ala; and their pharmaceutically acceptable salts. X 1 is selected from the group consisting of Ac- -Tyr, phenylacetyl and 3-phenylpropionyl; X 2 is selected from the group consisting of -Glu, -Ser and Aib, wherein Aib is α-methyl-Ala; and their pharmaceutically acceptable salts.
A bidirectional switch (500, 600, 700, 800, 910, 1110) comprising: a first enhancement mode n-channel metal oxide semiconductor field effect transistor (510, 610, 810, 914) having a source, a gate, and a drain; a second enhancement mode n-channel metal oxide semiconductor field effect transistor (520, 620, 820, 920) having a source, a gate, and a drain, wherein the source of the second enhancement mode n-channel metal semiconductor oxide field effect transistor (520, 620, 820, 920) is electrically connected to the source of the first enhancement mode n-channel metal oxide semiconductor field effect transistor (510, 610, 810, 914); characterized in further comprising an insulated gate bipolar transistor having an emitter, a gate, and a collector, wherein the emitter is electrically connected to the source of the first enhancement mode n-channel metal semiconductor oxide field effect transistor (520, 620, 820, 920) and the source of the second enhancement mode n-channel metal oxide semiconductor field effect transistor (510, 610, 810, 914). a first enhancement mode n-channel metal oxide semiconductor field effect transistor (510, 610, 810, 914) having a source, a gate, and a drain; a second enhancement mode n-channel metal oxide semiconductor field effect transistor (520, 620, 820, 920) having a source, a gate, and a drain, wherein the source of the second enhancement mode n-channel metal semiconductor oxide field effect transistor (520, 620, 820, 920) is electrically connected to the source of the first enhancement mode n-channel metal oxide semiconductor field effect transistor (510, 610, 810, 914); characterized in further comprising an insulated gate bipolar transistor having an emitter, a gate, and a collector, wherein the emitter is electrically connected to the source of the first enhancement mode n-channel metal semiconductor oxide field effect transistor (520, 620, 820, 920) and the source of the second enhancement mode n-channel metal oxide semiconductor field effect transistor (510, 610, 810, 914).
A toner cartridge detachably mountable to a toner replenishing apparatus, comprising: a developer accommodating chamber configured to accommodate toner; a feeding portion configured to feed the toner in the developer accommodating chamber with rotation thereof; a developer discharging chamber provided with a discharge opening configured to permit discharging of the toner fed by said feeding portion; a pump portion configured and positioned to act upon at least the developer discharging chamber, said pump portion having a volume which changes with reciprocation; a rotatable drive receiving portion (2a, 7a) configured to receive a rotational force from the toner replenishing apparatus, the drive receiving portion (2a, 7a) being configured to drive the pump portion and to rotate the feeding portion with rotation of the drive receiving portion (2a, 7a); and a drive converting portion (2d, 3b, 7, 8, 9, 15, 19, 20) configured to convert the rotational force received from the drive receiving portion (2a, 7a) to a driving force for operating said pump portion, characterized in that the pump portion is configured to suck air from an outside of the toner cartridge and to supply the toner replenishing apparatus with toner by discharging the air to the outside of the cartridge to such an extent that the toner is discharged from the discharge opening to the toner replenishing apparatus together with the air. a developer accommodating chamber configured to accommodate toner; a feeding portion configured to feed the toner in the developer accommodating chamber with rotation thereof; a developer discharging chamber provided with a discharge opening configured to permit discharging of the toner fed by said feeding portion; a pump portion configured and positioned to act upon at least the developer discharging chamber, said pump portion having a volume which changes with reciprocation; a rotatable drive receiving portion (2a, 7a) configured to receive a rotational force from the toner replenishing apparatus, the drive receiving portion (2a, 7a) being configured to drive the pump portion and to rotate the feeding portion with rotation of the drive receiving portion (2a, 7a); and a drive converting portion (2d, 3b, 7, 8, 9, 15, 19, 20) configured to convert the rotational force received from the drive receiving portion (2a, 7a) to a driving force for operating said pump portion, characterized in that the pump portion is configured to suck air from an outside of the toner cartridge and to supply the toner replenishing apparatus with toner by discharging the air to the outside of the cartridge to such an extent that the toner is discharged from the discharge opening to the toner replenishing apparatus together with the air.
A process for establishing manufacturing parameters for rapid prototyping using a rapid prototyping material to produce a laser sintered production part (76, 94) on a parts bed, the process comprising: (a) computer simulating a manufacture of the laser-sintered part (76,94) based on a set of manufacturing parameters, the manufacturing parameters including each of temperature set point, laser power, machine stage height, laser offset, and part position; (b) calculating a set of physical properties of the simulated manufacture, the physical properties including part dimensions and mechanical properties; (c) comparing the calculated physical properties to desired physical properties; (d) modifying the set of manufacturing parameters based on the calculated set in order to reduce a deviation between the calculated physical properties and the desired physical properties to obtain a desired set of physical properties; and (e) communicating the modified set of parameters to a laser sintering machine to form the laser-sintered part; wherein the process includes: establishing a thermal model of the parts bed (22,84,102) of a laser-sintering machine for laser sintering the laser sintered part (76,94) based on empirical data from testing of parts previously formed in the parts bed that are different from the laser-sintered production part, and wherein the step of computer simulating of the manufacture uses the thermal model and includes evaluating and comparing the following information: thermal analysis of the part bed, material and mechanical properties, physical and thermal characteristics of the rapid prototyping material, and empirical data from previous build runs, wherein the empirical data from previous build runs is derived from dimensional evaluation of the laser-sintered production part (76,94) and of iterative improvement specimens that are produced on the same parts bed during a given run. (a) computer simulating a manufacture of the laser-sintered part (76,94) based on a set of manufacturing parameters, the manufacturing parameters including each of temperature set point, laser power, machine stage height, laser offset, and part position; (b) calculating a set of physical properties of the simulated manufacture, the physical properties including part dimensions and mechanical properties; (c) comparing the calculated physical properties to desired physical properties; (d) modifying the set of manufacturing parameters based on the calculated set in order to reduce a deviation between the calculated physical properties and the desired physical properties to obtain a desired set of physical properties; and (e) communicating the modified set of parameters to a laser sintering machine to form the laser-sintered part;