mhurhangee/patent-ind-claim-en huggingface dataset:
A system for detecting moisture in an absorbent article worn by a wearer , the system comprising: an impedance sensing element , wherein the impedance sensing element includes electrodes ; and an impedance measurement subsystem for measuring the impedance of the absorbent article , and extracting a real component of the impedance and an imaginary component of the impedance for determining a characteristic of a moisture in the absorbent article , wherein the characteristic includes a presence of the moisture in the absorbent article characterized in that the system further comprises: an attachment member for securing the impedance sensing element at a location on an exterior surface of the absorbent article , wherein the electrodes are positioned so as to be capacitively coupled to an interior region of the absorbent article and to measure an impedance of the absorbent article from the location on the exterior surface of the absorbent article without making galvanic contact with the moisture in the absorbent article . an impedance sensing element , wherein the impedance sensing element includes electrodes ; and an impedance measurement subsystem for measuring the impedance of the absorbent article , and extracting a real component of the impedance and an imaginary component of the impedance for determining a characteristic of a moisture in the absorbent article , wherein the characteristic includes a presence of the moisture in the absorbent article characterized in that the system further comprises: an attachment member for securing the impedance sensing element at a location on an exterior surface of the absorbent article , wherein the electrodes are positioned so as to be capacitively coupled to an interior region of the absorbent article and to measure an impedance of the absorbent article from the location on the exterior surface of the absorbent article without making galvanic contact with the moisture in the absorbent article .
An ionizer comprising at least one discharge needle causing corona discharge and generating ions upon application of a high voltage, a discharge needle holder holding the discharge needle , and a carrying air jet mechanism jetting out ion-carrying air toward a charge cancellation target (W), wherein the discharge needle holder includes a discharge needle accommodation chamber , an auxiliary air flow inlet in communication with a base end portion of the discharge needle accommodation chamber , and an auxiliary air flow outlet opened at a fore end portion of the discharge needle accommodation chamber to be directly communicated with an external space , the discharge needle is accommodated in the discharge needle accommodation chamber in a posture that a needle tip is exposed to the external space directly or through the auxiliary air flow outlet , and an auxiliary air flow gap extending from the auxiliary air flow inlet to the auxiliary air flow outlet is formed between an outer periphery of the discharge needle and inner peripheries of the discharge needle accommodation chamber and the auxiliary air flow outlet , characterized in that the carrying air jet mechanism includes a drive nozzle having a drive air flow introduction port at a base end thereof and a drive air jet port at a fore end thereof, and a diffuser disposed in front of the drive nozzle with an ambient air suction gap interposed therebetween, the carrying air jet mechanism being disposed at a position adjacent to the discharge needle holder , a carrying air flow hole having a larger diameter than the drive air jet port is formed inside the diffuser to be coaxial with the drive air jet port , and a carrying air jet port from which the carrying air is jetted out is formed at a fore end of the carrying air flow hole .
Hob apparatus, in particular induction hob apparatus, with at least three heating units (12a-c), with at least one power supply unit (20a-c) which has at least three power supply outputs (22a-c) and which supplies power to at least one of the heating units (12a-c) in at least one operating state, with at least one configuration unit (24a-c) which has at least three configuration inputs (26a-c), each of which are connected in an electrically conductive manner to one of the power supply outputs (22a-c), specifically independently of an operating state, and has at least three configuration outputs (28a-c), wherein a first configuration input (26a1-c1) is connected in an electrically conductive manner to a first configuration output (28a1-c1) and a second configuration input (26a2-c2) is connected in an electrically conductive manner to a second configuration output (28a2-c2), specifically independently of an operating state, and with at least one assignment unit (30a-c) which has at least three assignment inputs (32a-c), each of which are connected in an electrically conductive manner to one of the configuration outputs (28a-c), specifically independently of an operating state, and has at least three assignment outputs (34a-c), each of which are connected in an electrically conductive manner to one of the heating units (12a-c), specifically in at least one operating state depending on a switch position, and by means of which switch position, in the operating state, the assignment outputs (34a-c) are connected in an electrically conductive manner to the assignment inputs (32a-c), specifically in at least one operating state depending on a switch position, characterised in that, in the operating state, a third configuration input (26a3-c3) can be selectively connected in an electrically conductive manner to at least one of the configuration outputs (28a-c), specifically in at least one operating state depending on a switch position.
A travel control method for a vehicle, comprising: specifying a pedestrian crosswalk (B1) through which a subject vehicle (V1) is expected to pass as a target pedestrian crosswalk (B1); detecting a road configuration close to the target pedestrian crosswalk (B1); estimating a traffic line (S1-S8, S21-S23, S31-S33) of a moving object crossing the target pedestrian crosswalk on a basis of the road configuration; setting an area including the estimated traffic line as a detection area (RT) of a detector detecting an object around the subject vehicle (V1); detecting the moving object in the detection area using the detector ; and controlling travel of the subject vehicle (V1) on a basis of a detection result of the detector , characterized by further comprising: calculating a moving distance (LX1, LX2) in which the moving object moves until the subject vehicle (V1) reaches the target pedestrian crosswalk (B1), on a basis of a moving speed of the moving object; and setting a specific area in the area (RT) of the estimated traffic line (S1-S8, S21-S23, S31-S33) on the road configuration as the detection area, the specific area being an area in which a distance from the target pedestrian crosswalk (B1) is the moving distance (LX1, LX2) or less along the traffic line and has a predetermined width. specifying a pedestrian crosswalk (B1) through which a subject vehicle (V1) is expected to pass as a target pedestrian crosswalk (B1); detecting a road configuration close to the target pedestrian crosswalk (B1); estimating a traffic line (S1-S8, S21-S23, S31-S33) of a moving object crossing the target pedestrian crosswalk on a basis of the road configuration; setting an area including the estimated traffic line as a detection area (RT) of a detector detecting an object around the subject vehicle (V1); detecting the moving object in the detection area using the detector ; and controlling travel of the subject vehicle (V1) on a basis of a detection result of the detector , characterized by further comprising: calculating a moving distance (LX1, LX2) in which the moving object moves until the subject vehicle (V1) reaches the target pedestrian crosswalk (B1), on a basis of a moving speed of the moving object; and setting a specific area in the area (RT) of the estimated traffic line (S1-S8, S21-S23, S31-S33) on the road configuration as the detection area, the specific area being an area in which a distance from the target pedestrian crosswalk (B1) is the moving distance (LX1, LX2) or less along the traffic line and has a predetermined width. calculating a moving distance (LX1, LX2) in which the moving object moves until the subject vehicle (V1) reaches the target pedestrian crosswalk (B1), on a basis of a moving speed of the moving object; and setting a specific area in the area (RT) of the estimated traffic line (S1-S8, S21-S23, S31-S33) on the road configuration as the detection area, the specific area being an area in which a distance from the target pedestrian crosswalk (B1) is the moving distance (LX1, LX2) or less along the traffic line and has a predetermined width.
A method of estimating the skew of a local clock of a peer-to-peer transparent clock device connected through a network with d total,n , a master device having a master clock and a slave device , the method including the steps of: sending timing messages from the master device to the slave device over the network , the timing messages passing through said transparent clock device ; recording times of sending of said timing messages by the master device ; extracting, by the transparent clock device , from timing messages sent from the master device to the slave device , the times of sending of said timing messages; recording the times of receipt by the transparent clock device of timing messages sent from the master device to the slave device ; extracting, by the transparent clock device , from the timing messages, the total delay experienced by each timing message in passing from the master device to the transparent clock device, including the residence time in other transparent clock devices between the master device and the transparent clock device; by the transparent clock device , measuring a message residence time for a timing message passing through the transparent clock device, modifying a correction field in the received timing message with at least the measured message residence time to generate a modified correction field in the timing message sent from the transparent clock device to the slave device ; and estimating, by the transparent clock device , the skew of the local clock in the transparent clock device compared to the master clock using a plurality of each of said extracted and recorded times. sending timing messages from the master device to the slave device over the network , the timing messages passing through said transparent clock device ; recording times of sending of said timing messages by the master device ; extracting, by the transparent clock device , from timing messages sent from the master device to the slave device , the times of sending of said timing messages; recording the times of receipt by the transparent clock device of timing messages sent from the master device to the slave device ; extracting, by the transparent clock device , from the timing messages, the total delay experienced by each timing message in passing from the master device to the transparent clock device, including the residence time in other transparent clock devices between the master device and the transparent clock device; by the transparent clock device , measuring a message residence time for a timing message passing through the transparent clock device, modifying a correction field in the received timing message with at least the measured message residence time to generate a modified correction field in the timing message sent from the transparent clock device to the slave device ; and estimating, by the transparent clock device , the skew of the local clock in the transparent clock device compared to the master clock using a plurality of each of said extracted and recorded times.
A mouse whose genome comprises: (a) an insertion of one or more human VL gene segments and one or more human J L gene segments upstream of a mouse immunoglobulin light chain constant region gene, wherein the one or more human V L gene segments and one or more human J L gene segments are operably linked to the mouse immunoglobulin light chain constant region gene; (b) an insertion of one or more human V L gene segments and one or more human J L gene segments upstream of a mouse immunoglobulin heavy chain constant region gene, wherein the one or more human V L gene segments and one or more human J L gene segments are operably linked to the mouse immunoglobulin heavy chain constant region gene; and (c) an ectopic nucleic acid sequence that encodes a mouse ADAM6a protein or a functional fragment thereof and an ectopic nucleic acid sequence that encodes a mouse ADAM6b protein or a functional fragment thereof, wherein the mouse ADAM6a and ADAM6b proteins or functional fragments thereof are expressed from the ectopic nucleic acid sequences, wherein the mouse expresses an antibody comprising (i) a polypeptide that comprises a human light chain variable domain linked to a mouse heavy chain constant domain; and (ii) a polypeptide that comprises a human light chain variable domain linked to a mouse light chain constant domain. (a) an insertion of one or more human VL gene segments and one or more human J L gene segments upstream of a mouse immunoglobulin light chain constant region gene, wherein the one or more human V L gene segments and one or more human J L gene segments are operably linked to the mouse immunoglobulin light chain constant region gene; (b) an insertion of one or more human V L gene segments and one or more human J L gene segments upstream of a mouse immunoglobulin heavy chain constant region gene, wherein the one or more human V L gene segments and one or more human J L gene segments are operably linked to the mouse immunoglobulin heavy chain constant region gene; and (c) an ectopic nucleic acid sequence that encodes a mouse ADAM6a protein or a functional fragment thereof and an ectopic nucleic acid sequence that encodes a mouse ADAM6b protein or a functional fragment thereof, wherein the mouse ADAM6a and ADAM6b proteins or functional fragments thereof are expressed from the ectopic nucleic acid sequences,
A transformer , comprising: a first inductor configured as a first coil comprising conductive traces and including a first port; a second inductor configured as a second coil comprising conductive traces and magnetically coupled to the first inductor , the second inductor including a second port, the second inductor comprising a first portion configured to permit current flow in a clockwise direction and a second portion configured to permit current flow in a counter-clockwise direction, wherein the second coil is shaped in accordance with a figure eight configuration comprising an overlapped cross portion that couples the first portion and the second portion ; and a third inductor configured as a third coil comprising conductive traces and magnetically coupled to the first inductor , the third inductor including a third port, wherein each of the first coil and the third coil are designed in a substantially rectangular shape that partially surrounds the second coil , wherein the third coil is configured to accommodate the second coil with its cross portion such that the counter-clockwise direction is opposite the clockwise direction to reduce magnetic coupling between the second inductor and the third inductor based on magnetic coupling cancellation. a first inductor configured as a first coil comprising conductive traces and including a first port; a second inductor configured as a second coil comprising conductive traces and magnetically coupled to the first inductor , the second inductor including a second port, the second inductor comprising a first portion configured to permit current flow in a clockwise direction and a second portion configured to permit current flow in a counter-clockwise direction, wherein the second coil is shaped in accordance with a figure eight configuration comprising an overlapped cross portion that couples the first portion and the second portion ; and a third inductor configured as a third coil comprising conductive traces and magnetically coupled to the first inductor , the third inductor including a third port, wherein each of the first coil and the third coil are designed in a substantially rectangular shape that partially surrounds the second coil , wherein the third coil is configured to accommodate the second coil with its cross portion such that the counter-clockwise direction is opposite the clockwise direction to reduce magnetic coupling between the second inductor and the third inductor based on magnetic coupling cancellation.
A device comprising: a first chip comprising a first circuit element , a first interconnect pad in electrical contact with the first circuit element , and a barrier layer on the first interconnect pad ; a superconducting bump bond on the barrier layer; and a second chip joined to the first chip by the superconducting bump bond, the second chip comprising a first quantum circuit element , wherein the superconducting bump bond provides an electrical connection between the first circuit element and the first quantum circuit element, characterised in that the barrier layer is titanium nitride. a first chip comprising a first circuit element , a first interconnect pad in electrical contact with the first circuit element , and a barrier layer on the first interconnect pad ; a superconducting bump bond on the barrier layer; and a second chip joined to the first chip by the superconducting bump bond, the second chip comprising a first quantum circuit element , wherein the superconducting bump bond provides an electrical connection between the first circuit element and the first quantum circuit element,
Compound of general formula (I): wherein: - X represents a C-R 1 group or a nitrogen atom; - R 1 represents a hydrogen or a halogen atom; - R 2 , R 3 , R 4 and R 5 independently represent a hydrogen atom or a C 1 -C 6 alkyl, R 2 and R 3 together being able to form a cyclopentyl with the carbon atoms from the phenyl to which they are attached, and R 4 and R 5 together being able to form a cyclopentyl with the carbon atoms from the phenyl to which they are attached; and - Ar represents a group selected from: or a pharmaceutically acceptable salt, solvate or hydrate thereof for use in the treatment and/or prevention of an inflammatory skin disorder. - X represents a C-R 1 group or a nitrogen atom; - R 1 represents a hydrogen or a halogen atom; - R 2 , R 3 , R 4 and R 5 independently represent a hydrogen atom or a C 1 -C 6 alkyl, R 2 and R 3 together being able to form a cyclopentyl with the carbon atoms from the phenyl to which they are attached, and R 4 and R 5 together being able to form a cyclopentyl with the carbon atoms from the phenyl to which they are attached; and - Ar represents a group selected from:
Ground anchor for an anchor arrangement in the ground, with an elongate pull element , to which an anchor body is fixedly connectable on a ground-side anchoring portion , characterized in that a connecting material is applied at least on the ground-side anchoring portion for anchoring with the anchor body , which material, at ambient temperature, fixedly connects the pull element to the anchor body , and the connection to the anchor body is releasable at a predetermined release temperature which is different from the ambient temperature.
An electronic device comprising a housing having a housing space therein, wherein the housing comprises: a rear surface formed of a polymer material; and a side surface formed of a metal material and formed integrally with the rear surface using an insert injection molding process, coupled to an outer circumferential surface of the rear surface, wherein the side surface comprises: a first surface coupled to an end surface of the rear surface thereby forming a straight line segment in a horizontal direction; and a second surface formed in a vertical direction at an inside of the first surface to be bonded to an end surface of the rear surface, and where further, a convex portion is formed at a periphery of the end surface of the rear surface and is coupled to a recess portion formed at a periphery of the side surface bonded to the end surface of the rear surface and at an inside of the convex portion , a groove portion is formed, and at the inside of the recess portion , a protrusion portion is formed corresponding to the groove portion . a rear surface formed of a polymer material; and a side surface formed of a metal material and formed integrally with the rear surface using an insert injection molding process, coupled to an outer circumferential surface of the rear surface, wherein the side surface comprises: a first surface coupled to an end surface of the rear surface thereby forming a straight line segment in a horizontal direction; and a second surface formed in a vertical direction at an inside of the first surface to be bonded to an end surface of the rear surface, a first surface coupled to an end surface of the rear surface thereby forming a straight line segment in a horizontal direction; and a second surface formed in a vertical direction at an inside of the first surface to be bonded to an end surface of the rear surface, and where further, a convex portion is formed at a periphery of the end surface of the rear surface and is coupled to a recess portion formed at a periphery of the side surface bonded to the end surface of the rear surface and at an inside of the convex portion , a groove portion is formed, and at the inside of the recess portion , a protrusion portion is formed corresponding to the groove portion .
Diffuser of an active liquid agent, for the treatment of a gaseous or liquid environment, said diffuser comprising a container of said liquid agent, closed by grid means apt to retain in position said active agent, wherein said container and grid means are covered before the first use of the diffuser by an external barrier film, which has to be peeled off at the first use of the diffuser in order to make operative said grid means in allowing the emission of said active liquid agent towards the surrounding environment, characterised in that said grid means and said external barrier film are formed as a single multilayer film comprising at least an external barrier layer and at least another inner sealing layer wherein said inner sealing layer forms said grid means, at the first use of the diffuser, following the simultaneous removal of said barrier layer and of predefined incision portions of said sealing layer which are no longer laterally connected to the remaining part of the sealing layer and which remain adherent to the barrier layer .
A fusion protein comprising a clustered regularly interspersed short palindromic repeats (CRISPR) protein linked to at least one nucleosome interacting protein domain, wherein the CRISPR protein is a type II CRISPR/Cas9 nuclease or nickase, or the CRISPR protein is a type V CRISPR/Cpfl nuclease or nickase, and wherein the fusion protein further comprises at least one nuclear localization signal, and wherein the at least one nucleosome interacting protein domain is a high mobility group (HMG) box (HMGB) DNA binding domain, a HMG nucleosome-binding (HMGN) protein, a central globular domain from a histone H1 variant, a DNA binding domain from a chromatin remodeling complex protein, or a combination thereof. the CRISPR protein is a type II CRISPR/Cas9 nuclease or nickase, or the CRISPR protein is a type V CRISPR/Cpfl nuclease or nickase, and wherein the fusion protein further comprises at least one nuclear localization signal, and wherein the at least one nucleosome interacting protein domain is a high mobility group (HMG) box (HMGB) DNA binding domain, a HMG nucleosome-binding (HMGN) protein, a central globular domain from a histone H1 variant, a DNA binding domain from a chromatin remodeling complex protein, or a combination thereof.