mhurhangee/ep-ind-claims huggingface dataset:
A sealing strand having a cross-section which is substantially constant along a profiled web, the sealing strand having the following in a sectional plane extending transversely to the profiled web: a) a first material region having a holding portion for engaging a frame, and b) a second material region, which is connected to the first material region on the side opposite to the holding portion, wherein a connecting line is provided between the first material portion and the second material portion, and wherein the connecting line has a force transmission portion in which it extends substantially linearly, the second material region being formed from cellular rubber, and the cellular rubber having a density of 0.3 to 1.5 g/cm 3, and the first material region having a higher strength than the second material region, characterized in that the mean tensile strength of the material of the first material region is 4 to 6 times the mean tensile strength of the material of the second material region. a) a first material region having a holding portion for engaging a frame, and b) a second material region, which is connected to the first material region on the side opposite to the holding portion,
A tape cartridge attachably/detachably installed on a cartridge installation portion of a tape printing apparatus having a platen supporting shaft and a printing head, the platen supporting shaft being fixed to the cartridge installation portion at one end thereof and extending in an attaching/detaching direction of the tape cartridge, the tape cartridge including: a platen roller through which the platen supporting shaft passes when the tape cartridge is installed on the cartridge installation portion and which receives a pressing force from the printing head when a printing operation is performed in a state in which the tape cartridge is installed on the cartridge installation portion; a fitting portion in which a tip end of the platen supporting shaft passing through the platen roller fits when the tape cartridge is installed on the cartridge installation portion; a cartridge casing that journals the platen roller, wherein the fitting portion is provided on a casing wall on a near side of the cartridge casing in the attaching direction of the attaching/detaching direction; and a bearing hole that is provided on the cartridge casing and supports and allows the platen roller to move in a radial direction thereof when the tape cartridge is not installed on the cartridge installation portion; characterized by a top wall portion of the cartridge casing having a covering wall corresponding to the bearing hole having an oval shape, wherein the fitting portion is formed at the covering wall. a platen roller through which the platen supporting shaft passes when the tape cartridge is installed on the cartridge installation portion and which receives a pressing force from the printing head when a printing operation is performed in a state in which the tape cartridge is installed on the cartridge installation portion; a fitting portion in which a tip end of the platen supporting shaft passing through the platen roller fits when the tape cartridge is installed on the cartridge installation portion; a cartridge casing that journals the platen roller, wherein the fitting portion is provided on a casing wall on a near side of the cartridge casing in the attaching direction of the attaching/detaching direction; and a bearing hole that is provided on the cartridge casing and supports and allows the platen roller to move in a radial direction thereof when the tape cartridge is not installed on the cartridge installation portion; characterized by a top wall portion of the cartridge casing having a covering wall corresponding to the bearing hole having an oval shape, wherein the fitting portion is formed at the covering wall.
Sealing device of an axial turbomachine, comprising: - a circular strip (21; 38) with an outer surface and an inner surface; - an annular layer of abradable material on one of the outer and inner surfaces of the strip, designed to provide a sealing with a turning component of the turbomachine relative to the strip (21; 38), such as an annular row of blades, the surface of the strip covered by the abradable layer comprises at least one circular perforated zone (46; 48) with a series of perforations distributed over said zone (46; 48), and further comprises a smooth circular zone; characterized in that the axial length of the smooth zone is greater than 3 times the average spacing between the perforations. - a circular strip (21; 38) with an outer surface and an inner surface; - an annular layer of abradable material on one of the outer and inner surfaces of the strip, designed to provide a sealing with a turning component of the turbomachine relative to the strip (21; 38), such as an annular row of blades, the surface of the strip covered by the abradable layer comprises at least one circular perforated zone (46; 48) with a series of perforations distributed over said zone (46; 48), and further comprises a smooth circular zone;
A bus bar holder for a battery comprising a housing having a first wall, a first plurality of battery cells and a second plurality of battery cells housed by the housing, the bus bar holder comprising: - a main body comprising: - a first side to be disposed next to the first plurality of battery cells and the second plurality of battery cells; and - a second side opposite the first side and to be disposed away from the first plurality of battery cells and the second plurality of battery cells; and - a lead-in structure coupled with the main body on the first side, the lead-in structure comprising: - a first lead-in wall to be disposed between the first plurality of battery cells and the second plurality of battery cells; and - a second lead-in wall orthogonal to the first lead-in wall, the second lead-in wall to be disposed between the first wall of the housing, and the first plurality of battery cells and the second plurality of battery cells. - a main body comprising: - a first side to be disposed next to the first plurality of battery cells and the second plurality of battery cells; and - a second side opposite the first side and to be disposed away from the first plurality of battery cells and the second plurality of battery cells; and - a first side to be disposed next to the first plurality of battery cells and the second plurality of battery cells; and - a second side opposite the first side and to be disposed away from the first plurality of battery cells and the second plurality of battery cells; and - a lead-in structure coupled with the main body on the first side, the lead-in structure comprising: - a first lead-in wall to be disposed between the first plurality of battery cells and the second plurality of battery cells; and - a second lead-in wall orthogonal to the first lead-in wall, the second lead-in wall to be disposed between the first wall of the housing, and the first plurality of battery cells and the second plurality of battery cells. - a first lead-in wall to be disposed between the first plurality of battery cells and the second plurality of battery cells; and - a second lead-in wall orthogonal to the first lead-in wall, the second lead-in wall to be disposed between the first wall of the housing, and the first plurality of battery cells and the second plurality of battery cells.
Garment for use in fire extinguishing operations comprising a body wearable by an operator made of fireproof material and thermally insulating to protect the operator from heat and a safety apparatus incorporated in the body of said garment, which includes - a container in fireproof material; - electrical supply means housed in said container; - an electronic device housed in said container and connected to said electrical supply means to be electrically powered; - a light signalling device comprising a support fixable to said body; - a thermal sensing device comprising two temperature sensors (20a, 20b), fixed to said body in such a way that a first of said temperature sensors (20a, 20b) is adapted to detect the external temperature to said garment and a second of said temperature sensors (20a, 20b) is apt for detecting the temperature inside said body; characterized in that said safety apparatus comprises an alarm device, which includes a pneumatic actuator apt to generate a remote alarm, a screen of said light signaling device, which is permeable to the light and which is fixed to said support, and optical fibers having first ends fixed to said electronic device and second ends fixed to said screen so as to form on it luminous symbols in operating conditions; said electronic device comprising light-emitting means facing said first ends and being configured to operate said light-emitting means to generate a light signal in operation on said screen, a luminous signal in function of the occurrence of predefined temperature conditions detected by said temperature sensors (20a, 20b) and said electronic device being also apt for controlling said light emission means so as to activate or deactivate static information on said screen of said light signalling device in the form of predefined icons, said light signalling device thus being of a purely optical type. - a container in fireproof material; - electrical supply means housed in said container; - an electronic device housed in said container and connected to said electrical supply means to be electrically powered; - a light signalling device comprising a support fixable to said body; - a thermal sensing device comprising two temperature sensors (20a, 20b), fixed to said body in such a way that a first of said temperature sensors (20a, 20b) is adapted to detect the external temperature to said garment and a second of said temperature sensors (20a, 20b) is apt for detecting the temperature inside said body;
Receiver for a radio network, said receiver comprising - a receiving unit arranged to receive a number of time domain signals forming a plurality of symbols, each symbol having a cyclic prefix, and - a channel estimation unit arranged to determine a channel estimate ( ĥ os) in the time domain for a user ( u) based on known pilots in the signals received by the receiving unit, wherein the channel estimation unit is arranged to determine the channel estimate ( ĥ os) for a user (u) using a DFT matrix with a fundamental period related to the number ( N c) of sub-carriers associated to said user (u), wherein the channel estimate ( ĥ os) has a length of L taps, L being less than the number ( N c) of sub-carriers associated to said user, the receiver characterized in that the channel estimation unit comprises a channel estimation part arranged to estimate the channel estimate as h ^ os = V N c ⋅ k * D u * R u, wherein V N c ⋅ k * is the complex conjugate and transpose of the DFT matrix having a fundamental period of N c · k, wherein D u * is the complex conjugate and transpose of D u, which is a matrix comprising pilot symbols in the frequency domain corresponding to said user ( u) and wherein R u denote received samples in the frequency domain for said user ( u), and wherein k is an oversampling factor that is greater than one. - a receiving unit arranged to receive a number of time domain signals forming a plurality of symbols, each symbol having a cyclic prefix, and - a channel estimation unit arranged to determine a channel estimate ( ĥ os) in the time domain for a user ( u) based on known pilots in the signals received by the receiving unit,
A fire detector testing device, comprising: a liquid reservoir; and a vibrating mesh type aerosol generator, in fluid connection with the liquid reservoir, for generating an aerosol of a liquid from the liquid reservoir, arranged such that, when generated, the aerosol is directed towards a detector element of a fire detector. a liquid reservoir; and a vibrating mesh type aerosol generator, in fluid connection with the liquid reservoir, for generating an aerosol of a liquid from the liquid reservoir, arranged such that, when generated, the aerosol is directed towards a detector element of a fire detector.
A liquid surfactant composition comprising: (a) 0.5 to 15% by wt., preferably 1 to 12%, more preferably 1 to 10% by wt. of a surfactant selected from anionic surfactant, nonionic surfactant, amphoteric/zwitterionic surfactant, cationic surfactant and mixtures thereof where the system must comprise at least 1 % anionic surfactant; (b) 0.005 to 2.0% by wt. bacterial cellulose; and (c) 0.05 to 3.0% by wt. carboxymethyl cellulose having a molecular wt. of 1,000 to 150,000. (a) 0.5 to 15% by wt., preferably 1 to 12%, more preferably 1 to 10% by wt. of a surfactant selected from anionic surfactant, nonionic surfactant, amphoteric/zwitterionic surfactant, cationic surfactant and mixtures thereof where the system must comprise at least 1 % anionic surfactant; (b) 0.005 to 2.0% by wt. bacterial cellulose; and (c) 0.05 to 3.0% by wt. carboxymethyl cellulose having a molecular wt. of 1,000 to 150,000.
A method of transmitting control information in a radio network from a first station to a second station, the control information being indicative of a plurality of parameters for a radio communication involving at least the second station, the method comprising or triggering the steps of: determining an entry of a table (520; 620) comprising a collection of entries, wherein the determined entry is indicative of at least one of the parameters of the control information; and transmitting, to the second station, a reference to the determined entry of the table and supplementary information, wherein the reference identifies or points to the determined one of the entries in the table, and wherein the determined entry and the supplementary information are jointly indicative of the plurality of parameters of the control information. determining an entry of a table (520; 620) comprising a collection of entries, wherein the determined entry is indicative of at least one of the parameters of the control information; and transmitting, to the second station, a reference to the determined entry of the table and supplementary information, wherein the reference identifies or points to the determined one of the entries in the table, and wherein the determined entry and the supplementary information are jointly indicative of the plurality of parameters of the control information.
A method for evaluating a quality of preparations of an analytical tissue section for mass spectrometric imaging, comprising: - providing a sample support suitable for mass spectrometric imaging; - depositing the analytical tissue section and a reference sample on the sample support, wherein the reference sample comprises tissue which has adjacent regions of a first type and a second type of biological material, the first type of biological material being characterized by a first mass signal profile; - jointly preparing the analytical tissue section and the reference sample for analysis, which includes exposure of the analytical tissue section and the reference sample to wet chemistry; - acquiring spatially resolved mass spectra from the analytical tissue section and the reference sample in a same measurement run; - intensity-tracking the first mass signal profile over the spatially resolved mass spectra; - deducing an analyte delocalization feature from the intensity track(s), wherein the analyte delocalization feature represents a spreading out of analytes of interest that may have occurred during sample preparation and processing under wet chemistry; and - tagging a mass spectrometric image produced from the spatially resolved mass spectra of the analytical tissue section using the analyte delocalization feature. - providing a sample support suitable for mass spectrometric imaging; - depositing the analytical tissue section and a reference sample on the sample support, wherein the reference sample comprises tissue which has adjacent regions of a first type and a second type of biological material, the first type of biological material being characterized by a first mass signal profile; - jointly preparing the analytical tissue section and the reference sample for analysis, which includes exposure of the analytical tissue section and the reference sample to wet chemistry; - acquiring spatially resolved mass spectra from the analytical tissue section and the reference sample in a same measurement run; - intensity-tracking the first mass signal profile over the spatially resolved mass spectra; - deducing an analyte delocalization feature from the intensity track(s), wherein the analyte delocalization feature represents a spreading out of analytes of interest that may have occurred during sample preparation and processing under wet chemistry; and - tagging a mass spectrometric image produced from the spatially resolved mass spectra of the analytical tissue section using the analyte delocalization feature.
A mobile management handover system comprising: network side circuitry (1915, 1917) configured to determine available resources of candidate target handover cells of a user device, UE, select a target handover cell from the candidate target handover cells based on the available resources of each of the candidate target handover cells and a residency duration of the UE within each of the candidate target handover cells, and request reservation of the available resources by the target handover cell, wherein the circuitry is configured to determine the available resources as resources available during a time of residency of the UE in a corresponding candidate target handover cell; wherein the circuitry is further configured to base the selection of the target handover cell on a transmit power required for communication between the UE and each of the candidate target handover cells. network side circuitry (1915, 1917) configured to determine available resources of candidate target handover cells of a user device, UE, select a target handover cell from the candidate target handover cells based on the available resources of each of the candidate target handover cells and a residency duration of the UE within each of the candidate target handover cells, and request reservation of the available resources by the target handover cell, wherein the circuitry is configured to determine the available resources as resources available during a time of residency of the UE in a corresponding candidate target handover cell; wherein the circuitry is further configured to base the selection of the target handover cell on a transmit power required for communication between the UE and each of the candidate target handover cells.
A heat dissipating structure for enhancing heat dissipation from a heat source, comprising: a heat conduction sheet in a spirally wound shape for conducting heat from the heat source; a cushion member provided on an annular back surface of the heat conduction sheet, and easily deformed corresponding to a surface shape of the heat source compared to the heat conduction sheet; and a through passage penetrating in a direction in which the heat conduction sheet in the wound shape runs. a heat conduction sheet in a spirally wound shape for conducting heat from the heat source; a cushion member provided on an annular back surface of the heat conduction sheet, and easily deformed corresponding to a surface shape of the heat source compared to the heat conduction sheet; and a through passage penetrating in a direction in which the heat conduction sheet in the wound shape runs.
A surgical drill, comprising: (i) a housing; (ii) a retracting enclosure slidably disposed within the housing and configured to move between an extended position and a retracted position; (iii) a retracting motor operatively connected to the retracting enclosure to move the retracting enclosure between the extended position and the retracted position; (iv) a drill motor including a motor shaft configured to connect to a drill chuck and disposed within the retracting enclosure such that the motor shaft can rotate relative to the retracting enclosure; (v) a trigger switch configured to allow electrical energy to selectively flow to the retracting motor or the drill motor; (vi) a forward drill trigger operatively connected to the trigger switch; (vii) a reverse drill trigger operatively connected to the trigger switch, wherein the trigger switch is configured to activate the drill motor in a first rotational direction when only the forward drill trigger is actuated, wherein the trigger switch is configured to activate the drill motor in a reverse direction relative to the first rotational direction when only the reverse drill trigger is actuated, characterized in that when both the forward drill trigger and the reverse drill trigger are actuated simultaneously, the trigger switch is configured to actuate the retracting motor to move the retracting enclosure from the extended position to the retracted position. (i) a housing; (ii) a retracting enclosure slidably disposed within the housing and configured to move between an extended position and a retracted position; (iii) a retracting motor operatively connected to the retracting enclosure to move the retracting enclosure between the extended position and the retracted position; (iv) a drill motor including a motor shaft configured to connect to a drill chuck and disposed within the retracting enclosure such that the motor shaft can rotate relative to the retracting enclosure; (v) a trigger switch configured to allow electrical energy to selectively flow to the retracting motor or the drill motor; (vi) a forward drill trigger operatively connected to the trigger switch; (vii) a reverse drill trigger operatively connected to the trigger switch, wherein the trigger switch is configured to activate the drill motor in a first rotational direction when only the forward drill trigger is actuated,
A method for establishing an inner boundary of a work area, the method comprising the steps of: establishing an outer boundary of a work area; defining an offset between the inner boundary and the outer boundary such that a vehicle can execute one or more turns in a zone between the inner boundary and the outer boundary; defining a primary reference path with a target angular heading within the work area; generating secondary reference paths spaced apart from and generally parallel to the primary reference path; estimating incidence angles (504, 505) between projected axes associated with the reference paths (502, 506) and normal axes to corresponding outer boundary segments; establishing one or more inner boundary points spaced apart from a corresponding segment of the outer boundary by the offset if the corresponding incident angle (504, 505) is within a desired angular range, and interconnecting or using the established inner boundary points to form the inner boundary. establishing an outer boundary of a work area; defining an offset between the inner boundary and the outer boundary such that a vehicle can execute one or more turns in a zone between the inner boundary and the outer boundary; defining a primary reference path with a target angular heading within the work area; generating secondary reference paths spaced apart from and generally parallel to the primary reference path; estimating incidence angles (504, 505) between projected axes associated with the reference paths (502, 506) and normal axes to corresponding outer boundary segments; establishing one or more inner boundary points spaced apart from a corresponding segment of the outer boundary by the offset if the corresponding incident angle (504, 505) is within a desired angular range, and interconnecting or using the established inner boundary points to form the inner boundary.