mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a foundation element in the ground by means of a construction apparatus, wherein by means of a ground working tool a hole is formed in the ground, in which the foundation element is produced, wherein by means of a control and evaluation unit at least one operating variable of the construction apparatus, which changes depending on a ground composition, is detected as a function of a working depth, characterized in that in the control and evaluation unit a ground profile to be expected is entered, which indicates a layer structure of the ground with ground layers of different ground composition, and in that by the control and evaluation unit at least one operating variable is set in correlation with the entered ground profile in order to establish, at which working depth a transition between ground layers of different ground composition is present.
A watertight electrical connector for connecting to flat-wire conductors of a flexible circuit, the watertight electrical connector comprising: a first portion that supports connector terminals; a second portion that houses the connector terminals within a cavity, the second portion having a contact surface configured to mate with one or more of the flat-wire conductors within a connection area on a surface of the flexible circuit; and a seal surrounding an opening to the cavity to form a watertight connection between the connector terminals housed within the cavity and the one or more of the flat-wire conductors within the connection area on the surface of the flexible circuit the watertight electrical connector being configured to form the watertight connection when a retainer is fitted over the flexible circuit and attached to the watertight electrical connector to compress the seal and form the watertight connection between the surface of the flexible circuit and the contact surface of the watertight electrical connector, wherein the connector terminals protrude slightly through an opening of the cavity that passes through the contact surface of the watertight electrical connector, characterized in that the contact surface comprises outer protrusions that receive the retainer and are configured to contain edges of the flexible circuit to ensure alignment between the connector terminals housed within the cavity and the one or more of the flat-wire conductors within the connection area on the surface of the flexible circuit. a first portion that supports connector terminals; a second portion that houses the connector terminals within a cavity, the second portion having a contact surface configured to mate with one or more of the flat-wire conductors within a connection area on a surface of the flexible circuit; and a seal surrounding an opening to the cavity to form a watertight connection between the connector terminals housed within the cavity and the one or more of the flat-wire conductors within the connection area on the surface of the flexible circuit the watertight electrical connector being configured to form the watertight connection when a retainer is fitted over the flexible circuit and attached to the watertight electrical connector to compress the seal and form the watertight connection between the surface of the flexible circuit and the contact surface of the watertight electrical connector, wherein the connector terminals protrude slightly through an opening of the cavity that passes through the contact surface of the watertight electrical connector,
Cryogenic hydrogen storage system, comprising: - a vessel for containing cryogenic hydrogen; and - at least one inlet and/or outlet (18, 19) for letting gaseous hydrogen into the system and for letting gaseous hydrogen out of the system, further comprising - a heating and cooling system for heating and cooling gaseous hydrogen, wherein the heating and cooling system comprises at least one conduit (20, 21) connecting the at least one inlet and/or outlet to the vessel, and characterized by a plurality of thermally insulated thermal buffers (22 - 25), the thermal buffers (22 - 25) being thermally connected to the at least one conduit (20, 21) in series for heating and cooling a fluid in the conduit (20, 21), and in that multiple such thermally insulated thermal buffers (22 - 25), are arranged next to each other at an equal or similar distance to the vessel. - a vessel for containing cryogenic hydrogen; and - at least one inlet and/or outlet (18, 19) for letting gaseous hydrogen into the system and for letting gaseous hydrogen out of the system, further comprising - a heating and cooling system for heating and cooling gaseous hydrogen, - a heating and cooling system for heating and cooling gaseous hydrogen, wherein the heating and cooling system comprises at least one conduit (20, 21) connecting the at least one inlet and/or outlet to the vessel, and characterized by a plurality of thermally insulated thermal buffers (22 - 25), the thermal buffers (22 - 25) being thermally connected to the at least one conduit (20, 21) in series for heating and cooling a fluid in the conduit (20, 21), and in that multiple such thermally insulated thermal buffers (22 - 25), are arranged next to each other at an equal or similar distance to the vessel.
An air conditioning device for a compartment, in particular for a railroad vehicle, of the type comprising: - a primary heat pump circuit, comprising at least one primary heat exchanger with the air from the compartment, a primary compressor, a second primary heat exchanger with the outside air, and a primary expander device, and - a heat storage reservoir, connected to the primary circuit, in parallel with said primary heat exchanger with the air from the compartment, And in which: - the air conditioning device comprises a secondary heat pump circuit, comprising a first secondary heat exchanger with the air from the compartment, a secondary compressor, a second secondary heat exchanger with the air from the outside, and a secondary expander device, - the heat storage reservoir is connected to the secondary circuit, in parallel with said first secondary heat exchanger with the air from the compartment, characterized in that said heat storage reservoir is able to exchange heat with the air in the compartment, the heat storage reservoir being equipped with a ventilation device generating a flow of air passing through the storage reservoir. - a primary heat pump circuit, comprising at least one primary heat exchanger with the air from the compartment, a primary compressor, a second primary heat exchanger with the outside air, and a primary expander device, and - a heat storage reservoir, connected to the primary circuit, in parallel with said primary heat exchanger with the air from the compartment, - the air conditioning device comprises a secondary heat pump circuit, comprising a first secondary heat exchanger with the air from the compartment, a secondary compressor, a second secondary heat exchanger with the air from the outside, and a secondary expander device, - the heat storage reservoir is connected to the secondary circuit, in parallel with said first secondary heat exchanger with the air from the compartment,
A control unit for use with a medical device having an expandable element (36, 38), the control unit comprising: a fluid supply lumen connectable to the medical device; a fluid exhaust lumen connectable to the medical device; at least one sensor (60, 62) coupled to at least one of the fluid supply lumen and fluid exhaust lumen; a first valve coupled to at least one of the fluid supply lumen or fluid exhaust lumen; and a controller coupled to the sensor and the first valve, the controller programmed to: determine an amount of fluid delivered to the expandable element (36, 38) based on information from the at least one sensor (60, 62); determine an inflated dimension of the expandable element (36, 38) based on the determined amount of fluid; regulate fluid circulation to the expandable element (36, 38) to attain at least one of a target pressure, a target temperature, and a target flow rate based at least in part on the determined amount of fluid; and characterised in that the controller is programmed to monitor a heart rate and modify fluid delivery to the expandable element based at least in part on the heart rate. a fluid supply lumen connectable to the medical device; a fluid exhaust lumen connectable to the medical device; at least one sensor (60, 62) coupled to at least one of the fluid supply lumen and fluid exhaust lumen; a first valve coupled to at least one of the fluid supply lumen or fluid exhaust lumen; and a controller coupled to the sensor and the first valve, the controller programmed to: determine an amount of fluid delivered to the expandable element (36, 38) based on information from the at least one sensor (60, 62); determine an inflated dimension of the expandable element (36, 38) based on the determined amount of fluid; regulate fluid circulation to the expandable element (36, 38) to attain at least one of a target pressure, a target temperature, and a target flow rate based at least in part on the determined amount of fluid; and characterised in that the controller is programmed to determine an amount of fluid delivered to the expandable element (36, 38) based on information from the at least one sensor (60, 62); determine an inflated dimension of the expandable element (36, 38) based on the determined amount of fluid; regulate fluid circulation to the expandable element (36, 38) to attain at least one of a target pressure, a target temperature, and a target flow rate based at least in part on the determined amount of fluid; and characterised in that the controller is programmed to monitor a heart rate and modify fluid delivery to the expandable element based at least in part on the heart rate.
A method of manufacturing a liquid ejecting head unit including a liquid ejecting head that is provided with a liquid ejecting head main body that has a nozzle group that is formed by arranging a plurality of nozzles, which eject a liquid, in parallel, to eject a liquid from each nozzle, and a fixation member that has a fixation part to which the liquid ejecting head main body is fixed, and a reference surface that is formed on a side facing in a direction opposite to the fixation part, and which includes a reference part serving as a reference for positioning the liquid ejecting head main body with respect to an installation target; and a support member that has an installation surface in which the liquid ejecting head is installed using the fixation member, the method comprising performing the following steps in the following order: adjusting the relative position between the nozzle group of the liquid ejecting head main body and the reference surface of the fixation member; fixing the fixation member and the liquid ejecting head main body by positioning a position adjusting part between the liquid ejecting head main body and the fixation part in a state in which the nozzle group has been positioned with respect to the reference surface, wherein the position adjusting part is an adhesive; and fixing the support member and the fixation member to each other in a state of the fixation member being positioned with respect to the support member by bringing the reference part of the fixation member into contact with the installation surface of the support member. adjusting the relative position between the nozzle group of the liquid ejecting head main body and the reference surface of the fixation member; fixing the fixation member and the liquid ejecting head main body by positioning a position adjusting part between the liquid ejecting head main body and the fixation part in a state in which the nozzle group has been positioned with respect to the reference surface, wherein the position adjusting part is an adhesive; and fixing the support member and the fixation member to each other in a state of the fixation member being positioned with respect to the support member by bringing the reference part of the fixation member into contact with the installation surface of the support member.
System comprising: - an ultra-broadband microwave unit, and at least one ultra-broadband antenna with at least one disk-shaped carrier substrate which has a first surface facing a first side and a second surface which is opposed to the first surface and forms an outer side of the antenna, characterized in that the system further - comprises a measuring cell, in particular in the form of a container, with a conductive and/or non-conductive measuring cell wall, which has a surface directed into an interior of the measuring cell, and - is configured for detecting and/or determining the volume of bodies or substances made of dielectric and/or conductive material (500, 502, 503, 504) within the interior of the measuring cell in such a way that the carrier substrate a) is built into the measuring cell wall and replaces a part of the surface of the measuring cell wall directed into the interior of the measuring cell, or b) is arranged in the interior of the measuring cell at a distance from the measuring cell wall, wherein the ultra-broadband antenna is set up as an electrically short antenna with an at least substantially hemispherical radiation characteristic by means of radiator elements arranged on the first surface of the carrier substrate or in the carrier substrate, for covering a volumetric measuring field extending from the outside over a solid angle of at least 2π. - an ultra-broadband microwave unit, and at least one ultra-broadband antenna with at least one disk-shaped carrier substrate which has a first surface facing a first side and a second surface which is opposed to the first surface and forms an outer side of the antenna, - comprises a measuring cell, in particular in the form of a container, with a conductive and/or non-conductive measuring cell wall, which has a surface directed into an interior of the measuring cell, and - is configured for detecting and/or determining the volume of bodies or substances made of dielectric and/or conductive material (500, 502, 503, 504) within the interior of the measuring cell in such a way that the carrier substrate a) is built into the measuring cell wall and replaces a part of the surface of the measuring cell wall directed into the interior of the measuring cell, or b) is arranged in the interior of the measuring cell at a distance from the measuring cell wall, a) is built into the measuring cell wall and replaces a part of the surface of the measuring cell wall directed into the interior of the measuring cell, or b) is arranged in the interior of the measuring cell at a distance from the measuring cell wall, a) is built into the measuring cell wall and replaces a part of the surface of the measuring cell wall directed into the interior of the measuring cell, or b) is arranged in the interior of the measuring cell at a distance from the measuring cell wall,
A composite structure (1, 2) comprising at least two nonwoven, polymeric layers bonded to each other, wherein each nonwoven, polymeric layer comprises polymer resin, wherein the polymer resin consists essentially of polypropylene, wherein the composite structure has one or more of the following physical and mechanical properties: (i) a hydrostatic head, HSH, ranging from 400 mm to 1000 mm, measured according to AATCC 127; (ii) an air permeability ranging from 400 l/m 2 s to 900 l/m 2 s, measured according to ASTM D-737; (iii) a MD tensile strength ranging from 95.0 N/5 cm to 120.0 N/5 cm, measured according to ISO 9073-3:1989; (iv) a CD tensile strength ranging from 40.0 N/5 cm to 60.0 N/ 5 cm, measured according to ISO 9073-3:1989; (v) a MD elongation ranging from 60 % to 120 %, measured according to ISO 9073-3:1989; and (vi) a CD elongation ranging from 60 % to 120 %, measured according to ISO 9073-3:1989; and wherein at least one of the nonwoven, polymeric layers is spunbonded (3, 5, 4, 6, 12, 14), and at least one of the nonwoven, polymeric layers is meltbown (7, 8, 10), further wherein: - the S layer or each of the S layers comprise inorganic particulate filler in an amount from 3 to 16 % by weight of the S layer; - the M layer or each of the M layers comprises less inorganic particulate filler than the S layers; and wherein the inorganic particulate filler is coated with one or more fatty acids or salts or esters thereof; the amounts of filler include the weight of the coating. (i) a hydrostatic head, HSH, ranging from 400 mm to 1000 mm, measured according to AATCC 127; (ii) an air permeability ranging from 400 l/m 2 s to 900 l/m 2 s, measured according to ASTM D-737; (iii) a MD tensile strength ranging from 95.0 N/5 cm to 120.0 N/5 cm, measured according to ISO 9073-3:1989; (iv) a CD tensile strength ranging from 40.0 N/5 cm to 60.0 N/ 5 cm, measured according to ISO 9073-3:1989; (v) a MD elongation ranging from 60 % to 120 %, measured according to ISO 9073-3:1989; and (vi) a CD elongation ranging from 60 % to 120 %, measured according to ISO 9073-3:1989; and wherein at least one of the nonwoven, polymeric layers is spunbonded (3, 5, 4, 6, 12, 14), and at least one of the nonwoven, polymeric layers is meltbown (7, 8, 10), further wherein: - the S layer or each of the S layers comprise inorganic particulate filler in an amount from 3 to 16 % by weight of the S layer; - the M layer or each of the M layers comprises less inorganic particulate filler than the S layers; and - the S layer or each of the S layers comprise inorganic particulate filler in an amount from 3 to 16 % by weight of the S layer; - the M layer or each of the M layers comprises less inorganic particulate filler than the S layers; and wherein the inorganic particulate filler is coated with one or more fatty acids or salts or esters thereof; the amounts of filler include the weight of the coating.
A screw connection device for connecting two pipes (1, 2), consisting of two pipes (1, 2) with crimped pipe ends (3, 4), a screw, a nut and a spacer element, wherein the nut has a receiving space, wherein the spacer element is captively accommodated in the receiving space, wherein the spacer element captively holds the first pipe in the nut, wherein the second pipe can be fastened in the nut by means of the screw, wherein an outer surface of the spacer element is cylindrically shaped over at least one section, wherein the spacer element has a first and a second end face, wherein the spacer element is provided with a first projection, which is engaged with the nut in the area of the receiving space for captive accommodation, characterized in that the nut has an inwardly protruding nose in the area of the receiving space, and that the nose has allocated to it an indentation on the outside of the nut.
A back to back electronic display assembly comprising: a first display assembly positioned back to back with a second display assembly; an enclosed plenum positioned entirely between the first and second display assemblies (201,401); a first gap defined between the enclosed plenum and the first display assembly; a second gap defined between the enclosed plenum and the second display assembly; and a fan positioned to force external air through the first and second gaps; wherein the plenum is sealed to prevent circulating air located within the enclosed plenum from exiting the enclosed plenum. a first display assembly positioned back to back with a second display assembly; an enclosed plenum positioned entirely between the first and second display assemblies (201,401); a first gap defined between the enclosed plenum and the first display assembly; a second gap defined between the enclosed plenum and the second display assembly; and a fan positioned to force external air through the first and second gaps; wherein the plenum is sealed to prevent circulating air located within the enclosed plenum from exiting the enclosed plenum.
A toy system comprising: a magnetic sensor that detects an orientation and a magnitude of a magnetic field; plurality of separate toys; and a determination section that, based on an output from the magnetic sensor, determines that one of the plurality of separate toys having magnetic field generation means has approached the magnetic sensor and determines which of the separate toys has approached the magnetic sensor, the magnetic field generation means being mounted individually on the separate toys in such a manner as to generate differently oriented magnetic fields in a standard posture, wherein the magnetic sensor is built in a casing, and the casing includes a to-be-engaged section with which an engagement section disposed on each of the separate toys engages, characterized in that the separate toys each include a movable section for changing an orientation relative to the engagement section, the magnetic field generation means is disposed on the movable section, and the determination section determines the orientation of the movable section based on an output from the magnetic sensor. a magnetic sensor that detects an orientation and a magnitude of a magnetic field; plurality of separate toys; and a determination section that, based on an output from the magnetic sensor, determines that one of the plurality of separate toys having magnetic field generation means has approached the magnetic sensor and determines which of the separate toys has approached the magnetic sensor, the magnetic field generation means being mounted individually on the separate toys in such a manner as to generate differently oriented magnetic fields in a standard posture, wherein the magnetic sensor is built in a casing, and the casing includes a to-be-engaged section with which an engagement section disposed on each of the separate toys engages, characterized in that the separate toys each include a movable section for changing an orientation relative to the engagement section, the magnetic field generation means is disposed on the movable section, and the determination section determines the orientation of the movable section based on an output from the magnetic sensor.
A photocurable composition comprising: a compound having an unsaturated double bond; at least one compound represented by general formula; a sensitizer; and at least one compound selected from the group consisting of a metal salt and a metal complex, wherein said at least one compound is selected from cobalt-based compounds, manganese-based compounds, lead-based compounds, copper-based compounds, iron-based compounds, calcium-based compounds, and vanadium (4+) acetylacetone, where R 1 and R 2 are each independently a substituent containing at least one group selected from the group consisting of a nitro group, a cyano group, a hydroxy group, an acetyl group, a carbonyl group, a substituted or unsubstituted allyl group, a substituted or unsubstituted alkyl group, a substituted or unsubstituted alkoxy group, an unsubstituted or substituted aryl group, an unsubstituted or substituted aryloxy group, a heterocyclic ring structure-containing group, and a group having a plurality of rings; or R 1 and R 2 are bonded to each other to form a cyclic structure with carbon atoms to which the groups are bonded. a compound having an unsaturated double bond; at least one compound represented by general formula; a sensitizer; and at least one compound selected from the group consisting of a metal salt and a metal complex, wherein said at least one compound is selected from cobalt-based compounds, manganese-based compounds, lead-based compounds, copper-based compounds, iron-based compounds, calcium-based compounds, and vanadium (4+) acetylacetone, where R 1 and R 2 are each independently a substituent containing at least one group selected from the group consisting of a nitro group, a cyano group, a hydroxy group, an acetyl group, a carbonyl group, a substituted or unsubstituted allyl group, a substituted or unsubstituted alkyl group, a substituted or unsubstituted alkoxy group, an unsubstituted or substituted aryl group, an unsubstituted or substituted aryloxy group, a heterocyclic ring structure-containing group, and a group having a plurality of rings; or R 1 and R 2 are bonded to each other to form a cyclic structure with carbon atoms to which the groups are bonded.