mhurhangee/ep-ind-claims huggingface dataset:
A method of making a sole structure for an article of footwear, the method comprising: providing a midsole with a first cavity and a second cavity; forming a first barrier member from a first material, the first barrier member including a first compartment and a second compartment; forming a second barrier member from a second material; providing the first compartment with a first quantity of particulate matter; providing the second compartment with a second quantity of particulate matter; covering the first compartment with the second barrier member; covering the second compartment with the second barrier member; positioning the first compartment within the first cavity; and positioning the second compartment within the second cavity, wherein providing the first compartment with the first quantity of particulate matter and providing the second compartment with the second quantity of particulate matter includes providing the first compartment and the second compartment with foam beads. providing a midsole with a first cavity and a second cavity; forming a first barrier member from a first material, the first barrier member including a first compartment and a second compartment; forming a second barrier member from a second material; providing the first compartment with a first quantity of particulate matter; providing the second compartment with a second quantity of particulate matter; covering the first compartment with the second barrier member; covering the second compartment with the second barrier member; positioning the first compartment within the first cavity; and positioning the second compartment within the second cavity, wherein providing the first compartment with the first quantity of particulate matter and providing the second compartment with the second quantity of particulate matter includes providing the first compartment and the second compartment with foam beads.
Device for producing an air curtain with an air duct and a plurality of flow chambers (3, 5, 8) each having inlet openings (2, 4, 9) and outlet openings (6, 7, 10) adjoining the air duct, the outlet openings (6, 7, 10) of the flow chambers (3, 5, 8) adjoin one another transversely to a common blow-out direction, characterized in that the cross-sectional ratio between the cross-sectional areas of the inlet openings (2, 4, 9) and outlet openings (6, 7, 10) of mutually adjacent flow chambers (3, 5, 8) decreases from a main flow chamber, and in that the cross-sectional ratio between the cross-sectional areas of the inlet openings (2, 4, 9) and outlet openings (6, 7, 10) of the flow chambers (3, 5, 8) is between 0.05 and 1.5.
Electronic device having particular security requirements which comprises a printed circuit board, wherein the printed circuit board is enclosed by a housing having two housing parts (1, 2) joined by means of screw, wherein a separation of the housing parts (1, 2) automatically causes a change in state of the electronic device, wherein a first electrically conductive contact element contacts a first printed circuit board contact and is seated against the screw in the screwed-in state and wherein a second electrically conductive contact element contacts a second printed circuit board contact and is seated against the screw in the screwed-in state, such that when the screw is screwed in an electrical connection exists between the two printed circuit board contacts (7, 8), characterised in that the contact elements (5, 6) are seated against the screw in such a way that the electrical connection of the two printed circuit board contacts (7, 8) is made only when the screw is fully screwed in.
A method for minimizing co-channel interference in a communication system having at least a first signal and a second signal, each signal transmitted on different channels within the communication system, the method characterised by comprising: scrambling a first physical layer header of the first signal using a first scrambling code; scrambling a second physical layer header of the second signal using a second scrambling code which is different from the first scrambling code; and simultaneously transmitting, from a transmitter, the first signal and the second signal with the scrambled first header and the scrambled second header over different channels of the communication system. scrambling a first physical layer header of the first signal using a first scrambling code; scrambling a second physical layer header of the second signal using a second scrambling code which is different from the first scrambling code; and simultaneously transmitting, from a transmitter, the first signal and the second signal with the scrambled first header and the scrambled second header over different channels of the communication system.
A microfluidic detection system comprising a microfluidic cartridge and a detector assembly, the microfluidic cartridge (10, 20, 40) comprises a first and a second side and at least one flow channel (11, 21, 41) and an inlet (13, 23, 43) to the at least one flow channel (11, 21, 41) for feeding a liquid sample, the at least one flow channel (11, 21, 41) comprises a plurality of first optical detection sites (16, 27, 28, 47), the detector assembly comprises a slot for inserting the microfluidic cartridge (10, 20, 40), said detector assembly further comprising a first fixed light source (30, 30a, 30b, 30c) with a beam path and an optical reader (35, 36) for reading out optical signals from the first optical detection site(s), said detector assembly and the microfluidic cartridge (10, 20, 40) being constructed such that when said microfluidic cartridge (10, 20, 40) is inserted to a first predetermined position into said slot, one of the first optical detection sites (16, 27, 28, 47) of the microfluidic cartridge (10, 20, 40) is positioned in the beam path of the first (16, 27, 28, 47) source, and when said cartridge (10, 20, 40) is inserted to a second predetermined position into said slot, another one of the first optical detection sites (16, 27, 28, 47) of the microfluidic cartridge (10, 20, 40) is positioned in the beam path of the first light source, wherein each of said first and said second predetermined positions of said microfluidic cartridge (10, 20, 40) into said slot are determined by a click arrangement holding the microfluidic cartridge (10, 20, 40) in a temporally fixed position.
A fastening arrangement for retaining at least a first mechanical part and a second mechanical part to each other, the fastening arrangement comprising a first elongated leg member, a second elongated leg member and a curved member extending between the first and second elongated leg members, wherein the first elongated leg member, the second elongated leg member and the curved member form an inner space arranged to accommodate at least a part of the first and second mechanical parts, the curved member comprises an inner surface arranged to face a surface of the first mechanical part, the inner surface being formed by an inner portion, a first outer portion and a second outer portion, wherein the first outer portion is arranged between the inner portion and the first elongated leg member, and the second outer portion is arranged between the inner portion and the second elongated leg member, wherein each of the first and second elongated leg members comprises a portion arranged to receive a respective tightening element for retaining the first and second mechanical parts to each other, characterized in that the first and second outer end portions of the inner surface of the curved member comprises a concave surface portion as seen in a cross-section transverse to the extension of the curved member, and wherein the inner portion of the inner surface of the curved member comprises a flat surface portion as seen in the cross-section transverse to the extension of the curved member.
A wireless communications system (400,500,600) for communicating with user equipment located inside a physical structure comprising: - a node (403, 501, 601) having at least two antenna ports and being adapted for wireless communication with said user equipment, and - at least one leaky cable (408,409) having two ends (404,405,406,407), each end (404,405,406,407) of said at least one leaky cable (408,409) is connected to one of said antenna ports of said node (403, 501,601), wherein said at least one leaky cable (408,409) is provided at least partially inside said physical structure and being adapted for wireless communication over a radio channel with said user equipment characterized in that the wireless communication system (400, 500, 600) further comprises: - a first signal divider (401,402) having at least two signal divider antenna ports and at least one signal divider node port connected to one of said at least two antenna ports of said node; - a second signal divider (401,402) having at least two signal divider antenna ports and at least one signal divider node port connected to one of said at least two antenna ports of said node; wherein each end (404,405,406,407) of said at least one leaky cable (408,409) is connected, via one of said signal divider antenna ports of one of said first signal divider and said second signal divider, to one of said antenna ports of said node. - a node (403, 501, 601) having at least two antenna ports and being adapted for wireless communication with said user equipment, and - at least one leaky cable (408,409) having two ends (404,405,406,407), each end (404,405,406,407) of said at least one leaky cable (408,409) is connected to one of said antenna ports of said node (403, 501,601), wherein said at least one leaky cable (408,409) is provided at least partially inside said physical structure and being adapted for wireless communication over a radio channel with said user equipment - a first signal divider (401,402) having at least two signal divider antenna ports and at least one signal divider node port connected to one of said at least two antenna ports of said node; - a second signal divider (401,402) having at least two signal divider antenna ports and at least one signal divider node port connected to one of said at least two antenna ports of said node; wherein each end (404,405,406,407) of said at least one leaky cable (408,409) is connected, via one of said signal divider antenna ports of one of said first signal divider and said second signal divider, to one of said antenna ports of said node.
A method for generating a mobile device's user interface, the method comprising: receiving, via the mobile device, input from a user of the mobile device, the input being related to a property for presenting dynamic context-dependent informational cues; determining a context; identifying a subset of a set of informational cues, the subset being associated with the context; and presenting, via the mobile device, the identified subset within the dynamic portion to the user, wherein the presentation accords with the received user input; and wherein the input comprises an actual border of a dynamic portion of a screen on the mobile device for visually presenting the identified subset, and wherein the input comprises one or more touch-screen-drawn borders, wherein drawing a perimeter of around a portion of a screen is carried out, and wherein the dynamic portion comprises a plurality of regions of a screen on the mobile device, the plurality of regions covering less than an entirety of the screen. receiving, via the mobile device, input from a user of the mobile device, the input being related to a property for presenting dynamic context-dependent informational cues; determining a context; identifying a subset of a set of informational cues, the subset being associated with the context; and presenting, via the mobile device, the identified subset within the dynamic portion to the user, wherein the presentation accords with the received user input; and wherein the input comprises an actual border of a dynamic portion of a screen on the mobile device for visually presenting the identified subset, and wherein the input comprises one or more touch-screen-drawn borders, wherein drawing a perimeter of around a portion of a screen is carried out, and wherein the dynamic portion comprises a plurality of regions of a screen on the mobile device, the plurality of regions covering less than an entirety of the screen.
A printing head assembly with integrated purge mechanism, comprising: (a) a liquid dispensing head comprising one or more dispensing nozzles enclosed in a nozzle plate, driven by a first pressure and a second pressure, wherein the first pressure is a jetting pressure created inside the liquid dispensing head such that printing liquid is dispensed in pulses from the nozzles, and the second pressure is an extra pressure applied externally to the printing liquid to push the printing liquid forcefully out of the liquid dispensing head through the nozzles; and (b) a shielding mask including an opening in front of said one or more nozzles, wherein said shielding mask is positioned with respect to said nozzle plate such that (i) when printing liquid is dispensed from the head driven by said first pressure, the liquid is dispensed through said opening in said shielding mask; and (ii) when printing liquid is dispensed from the head driven by said second pressure, said printing liquid is drawn by capillary forces to a capillary gap formed between said shielding mask and said nozzle plate, thereby removing said printing liquid from nearby said nozzles. (a) a liquid dispensing head comprising one or more dispensing nozzles enclosed in a nozzle plate, driven by a first pressure and a second pressure, wherein the first pressure is a jetting pressure created inside the liquid dispensing head such that printing liquid is dispensed in pulses from the nozzles, and the second pressure is an extra pressure applied externally to the printing liquid to push the printing liquid forcefully out of the liquid dispensing head through the nozzles; and (b) a shielding mask including an opening in front of said one or more nozzles, wherein said shielding mask is positioned with respect to said nozzle plate such that (i) when printing liquid is dispensed from the head driven by said first pressure, the liquid is dispensed through said opening in said shielding mask; and (ii) when printing liquid is dispensed from the head driven by said second pressure, said printing liquid is drawn by capillary forces to a capillary gap formed between said shielding mask and said nozzle plate, thereby removing said printing liquid from nearby said nozzles. (i) when printing liquid is dispensed from the head driven by said first pressure, the liquid is dispensed through said opening in said shielding mask; and (ii) when printing liquid is dispensed from the head driven by said second pressure, said printing liquid is drawn by capillary forces to a capillary gap formed between said shielding mask and said nozzle plate, thereby removing said printing liquid from nearby said nozzles.
A prosthesis for the repair of a cervical facet joint comprising: a superior component having a first articulating portion and a first mounting portion, the first articulating portion being adapted for placement between the facets of the cervical facet joint, an inferior component having a second articulating portion and a second mounting portion, the second articulating portion being adapted for placement between the facets of the cervical facet joint, and first and second bone anchor members (36, 40), said superior and inferior components (20, 21) being adapted for posterior attachment by the first and second bone anchor members respectively to respective first lateral mass structure and second lateral mass structure adjacent to the cervical facet joint such that the first and second articulating surfaces of the first and second articulating portions (22, 25) can articulate with each other between the facets of the adjacent lateral mass structures (32, 35), the first articulating portion being joined to said first mounting portion at an angle of about 45° and the second articulating portion being joined to said second mounting portion at an angle of about 135°, the first articulating portion having a first substantially flat articulating surface and the second articulating portion having a second substantially flat articulating surface, the prosthesis further comprising an elongated tether for attaching to the bone anchor members (36, 40) that secure the superior and inferior components (20, 21) to the lateral mass structures (32, 35). a superior component having a first articulating portion and a first mounting portion, the first articulating portion being adapted for placement between the facets of the cervical facet joint, an inferior component having a second articulating portion and a second mounting portion, the second articulating portion being adapted for placement between the facets of the cervical facet joint, and first and second bone anchor members (36, 40), said superior and inferior components (20, 21) being adapted for posterior attachment by the first and second bone anchor members respectively to respective first lateral mass structure and second lateral mass structure adjacent to the cervical facet joint such that the first and second articulating surfaces of the first and second articulating portions (22, 25) can articulate with each other between the facets of the adjacent lateral mass structures (32, 35), the first articulating portion being joined to said first mounting portion at an angle of about 45° and the second articulating portion being joined to said second mounting portion at an angle of about 135°, the first articulating portion having a first substantially flat articulating surface and the second articulating portion having a second substantially flat articulating surface, the prosthesis further comprising an elongated tether for attaching to the bone anchor members (36, 40) that secure the superior and inferior components (20, 21) to the lateral mass structures (32, 35).
An anaesthetic evaporation unit having - an anaesthetic container for receiving liquid anaesthetic, - a gas line having an open-pore, porous line wall for guiding gas and for enriching the gas with anaesthetic, wherein the line wall is supplied with anaesthetic from the anaesthetic container, and - a heater for heating the gas line, characterised in that the line wall is supplied with anaesthetic from the anaesthetic container by means of an anaesthetic-guiding wick that extends from an interior space of the anaesthetic container to the line wall, and the gas line and the wick are formed so as to be integral. - an anaesthetic container for receiving liquid anaesthetic, - a gas line having an open-pore, porous line wall for guiding gas and for enriching the gas with anaesthetic, wherein the line wall is supplied with anaesthetic from the anaesthetic container, and - a heater for heating the gas line,
Storage medium storing geographic data (20, B, P, U) of a geographic region as map units (17, 18, 19) in combination, wherein the map units (17, 18, 19) are hierarchically structured, wherein map units (17, 18, 19) of an n-th order each correspond to one geographic subregion, wherein n is a natural number, and wherein map units (17, 18, 19) of an (n+1)-th order each correspond to one geographic subrange of one of the subregions, wherein at least one map unit (17, 18, 19) has geographic data (20, B, P, U) of a particular type, and there is provision for a flag indicating that the at least one map unit (17, 18, 19) has geographic data (20, B, P, U) of the particular type, wherein the flag is stored in a structure file within the. storage medium, characterized in that the structure file additionally comprises the geographic area to which the map units (17, 18, 19) correspond.
A microfluidic device for separating constituents of a fluid sample, wherein the microfluidic device comprises: (a) an elongated flow path; and (b) a separation medium in the flow path, wherein the separation medium: substantially fills an interior volume of the elongated flow path such that the fluid sample having one or more constituents of interest traverses the separation medium as the fluid sample flows through the elongated flow path; and wherein the separation medium comprises functional groups co-polymerized with the separation medium that covalently bond to the one or more constituents of interest in the separation medium upon application of an applied stimulus at a capture efficiency of 1% or more. (a) an elongated flow path; and (b) a separation medium in the flow path, wherein the separation medium: substantially fills an interior volume of the elongated flow path such that the fluid sample having one or more constituents of interest traverses the separation medium as the fluid sample flows through the elongated flow path; and wherein the separation medium comprises functional groups co-polymerized with the separation medium that covalently bond to the one or more constituents of interest in the separation medium upon application of an applied stimulus at a capture efficiency of 1% or more. substantially fills an interior volume of the elongated flow path such that the fluid sample having one or more constituents of interest traverses the separation medium as the fluid sample flows through the elongated flow path; and wherein the separation medium comprises functional groups co-polymerized with the separation medium that covalently bond to the one or more constituents of interest in the separation medium upon application of an applied stimulus at a capture efficiency of 1% or more.
A method for controlling and/or protecting an actuator of a movable equipment of a building, the actuator comprising a motor of the type comprising a rotor and a stator, the method comprising the steps consisting of: - disposing an instantaneous signal representative of the electrical power supply, supplied to the motor, the instantaneous signal presenting a plurality of pulses (imp), - performing a sampling of values of the instantaneous signal, the sampling being synchronized with at least one portion of the pulses (imp) of the plurality of pulses (imp) of the instantaneous signal, - performing a control of each sampled value according to a first protection criterion (CRa) of the actuator, and transmitting a first anomaly information (lAa) for each sampled value, not complying with the first protection criterion (CRa), - (E3') acquiring a set of values (ECHa) among the sampled values, - (E4') performing a control according to a second protection criterion (CRb) of the actuator applied to the set of acquired sampled values (ECHa), and transmitting a second anomaly information (lAb) for the set of acquired sampled values (ECHa) not complying with the second protection criterion (CRb). - disposing an instantaneous signal representative of the electrical power supply, supplied to the motor, the instantaneous signal presenting a plurality of pulses (imp), - performing a sampling of values of the instantaneous signal, the sampling being synchronized with at least one portion of the pulses (imp) of the plurality of pulses (imp) of the instantaneous signal, - performing a control of each sampled value according to a first protection criterion (CRa) of the actuator, and transmitting a first anomaly information (lAa) for each sampled value, not complying with the first protection criterion (CRa), - (E3') acquiring a set of values (ECHa) among the sampled values, - (E4') performing a control according to a second protection criterion (CRb) of the actuator applied to the set of acquired sampled values (ECHa), and transmitting a second anomaly information (lAb) for the set of acquired sampled values (ECHa) not complying with the second protection criterion (CRb).