mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling a chemical / physical phenomenon detecting device , wherein the device comprises a semiconductor substrate in which a charge input region (ID), a sensing region and a charge accumulation region (5; 55; 65) are partitioned, a potential of the sensing region changes in accordance with a change in an external environment, and an amount of charges reflecting the potential of the sensing region is accumulated in the charge accumulation region (5; 55; 65) and the accumulated charges are detected, and wherein the charge accumulation region (5; 55; 65) comprises a first potential well region (FD1) continuous with the sensing region , the method comprising steps of: a charge filling step of supplying charges from the charge input region (ID) so that the first potential well region (FD1) is filled with charges, a sensing step after the charge filling step, for making the boundary potential of charges in the first potential well region (FD1) equal to the potential of the sensing region by means of the charge input region (ID) discharging the charges from the sensing region and the first potential well region (FD1) to have charges only be left in the first potential well region (FD1); and a detecting step for detecting an amount of the charges held in the first potential well region (FD1) in the sensing step. wherein the charge accumulation region (5; 55; 65) comprises a first potential well region (FD1) continuous with the sensing region , the method comprising steps of: a charge filling step of supplying charges from the charge input region (ID) so that the first potential well region (FD1) is filled with charges, a sensing step after the charge filling step, for making the boundary potential of charges in the first potential well region (FD1) equal to the potential of the sensing region by means of the charge input region (ID) discharging the charges from the sensing region and the first potential well region (FD1) to have charges only be left in the first potential well region (FD1); and a detecting step for detecting an amount of the charges held in the first potential well region (FD1) in the sensing step. a charge filling step of supplying charges from the charge input region (ID) so that the first potential well region (FD1) is filled with charges, a sensing step after the charge filling step, for making the boundary potential of charges in the first potential well region (FD1) equal to the potential of the sensing region by means of the charge input region (ID) discharging the charges from the sensing region and the first potential well region (FD1) to have charges only be left in the first potential well region (FD1); and a detecting step for detecting an amount of the charges held in the first potential well region (FD1) in the sensing step.
An atomizer, comprising a shell , wherein a mouthpiece holder is arranged at a top of the shell , a mouthpiece is connected to the mouthpiece holder , the mouthpiece holder is provided with an air inlet , an air tube is arranged in the shell , an air inlet channel is arranged in the air tube , and a side wall of the air tube is provided with a first air passing hole for communicating the air inlet with the air inlet channel , the mouthpiece is in clearance fit with the mouthpiece holder and is rotatable circumferentially, characterized in that a top end of the mouthpiece has an extension section extending toward an inner cavity of the mouthpiece , a bottom end face of the extension section is circumferentially provided with a number of step portions of unequal heights, a top end of the air tube has a support portion abutting against any step portion , and the atomizer further comprises a guiding mechanism that guides the air tube to move axially and limits circumferential rotation of the air tube when the mouthpiece rotates circumferentially; and the axial movement of the air tube changes the alignment area between the air inlet and the first air passing hole .
Method for providing a thermoset coating layer with a surface pattern and/or texture, which comprises the steps of: - providing a metal substrate; - providing a pre-treatment primer or a pre-treatment layer and a primer on the metal substrate; - applying a layer of a thermoplastic material on the pre-treatment primer or primer, - applying a top coat comprising a thermosetting material on the thermoplastic layer and curing the thermosetting material, and - subjecting the coated metal substrate to a treatment for providing the top coat with a surface pattern and/or texture, wherein the top coat is provided with a surface pattern and/or texture at a temperature of the coated metal substrate above the onset softening temperature of the thermoplastic material, wherein the onset softening temperature is determined according to the method disclosed in the description. - providing a metal substrate; - providing a pre-treatment primer or a pre-treatment layer and a primer on the metal substrate; - applying a layer of a thermoplastic material on the pre-treatment primer or primer, - applying a top coat comprising a thermosetting material on the thermoplastic layer and curing the thermosetting material, and - subjecting the coated metal substrate to a treatment for providing the top coat with a surface pattern and/or texture, wherein the top coat is provided with a surface pattern and/or texture at a temperature of the coated metal substrate above the onset softening temperature of the thermoplastic material, wherein the onset softening temperature is determined according to the method disclosed in the description.
A respiratory pressure therapy system comprising: a data server configured to communicate with a computing device and a respiratory pressure therapy device, the respiratory pressure therapy device configured to deliver respiratory pressure therapy to a patient for a session and the computing device being associated with the patient, the data server being further configured to: compute a therapy quality indicator of the session from usage data relating to the session, wherein the therapy quality indicator is a number derived from a plurality of contributions, each of which corresponds to a different usage variable for the session in the usage data; and transmit the therapy quality indicator to the computing device, wherein the usage variables comprise two or more of a group consisting of: • usage time of the session; • apnea-hypopnea index for the session; • average leak flow rate for the session; and • number of sub-sessions within the session, and wherein at least one of the plurality of contributions is proportional to a difference between the corresponding usage variable and a threshold for that usage variable. compute a therapy quality indicator of the session from usage data relating to the session, wherein the therapy quality indicator is a number derived from a plurality of contributions, each of which corresponds to a different usage variable for the session in the usage data; and transmit the therapy quality indicator to the computing device, wherein the usage variables comprise two or more of a group consisting of: • usage time of the session; • apnea-hypopnea index for the session; • average leak flow rate for the session; and • number of sub-sessions within the session, and • usage time of the session; • apnea-hypopnea index for the session; • average leak flow rate for the session; and • number of sub-sessions within the session, and wherein at least one of the plurality of contributions is proportional to a difference between the corresponding usage variable and a threshold for that usage variable.
A device , comprising: a main body having a front and a back; an input means ; an accelerometer within the main body configured for detecting movement and an orientation of the device ; and a processor within the main body configured for: placing the device in a first sleep state and then a second sleep state after a first time elapsed without detecting movement of the device or receiving input, upon detecting, by the processor, that the device is in a first orientation ; placing the device in a third sleep state after a second time elapsed without detecting movement of the device or receiving input, upon detecting, by the processor, that the device is in a second orientation ; and placing the device in a fourth sleep state after a third time elapsed without detecting movement of the device or receiving input, upon detecting, by the processor, the device is neither in the first orientation nor in the second orientation ; wherein the first time elapsed, the second time elapsed and the third time elapsed are distinct from one another. a main body having a front and a back; an input means ; an accelerometer within the main body configured for detecting movement and an orientation of the device ; and a processor within the main body configured for: placing the device in a first sleep state and then a second sleep state after a first time elapsed without detecting movement of the device or receiving input, upon detecting, by the processor, that the device is in a first orientation ; placing the device in a third sleep state after a second time elapsed without detecting movement of the device or receiving input, upon detecting, by the processor, that the device is in a second orientation ; and placing the device in a fourth sleep state after a third time elapsed without detecting movement of the device or receiving input, upon detecting, by the processor, the device is neither in the first orientation nor in the second orientation ; wherein the first time elapsed, the second time elapsed and the third time elapsed are distinct from one another. placing the device in a first sleep state and then a second sleep state after a first time elapsed without detecting movement of the device or receiving input, upon detecting, by the processor, that the device is in a first orientation ; placing the device in a third sleep state after a second time elapsed without detecting movement of the device or receiving input, upon detecting, by the processor, that the device is in a second orientation ; and placing the device in a fourth sleep state after a third time elapsed without detecting movement of the device or receiving input, upon detecting, by the processor, the device is neither in the first orientation nor in the second orientation ; wherein the first time elapsed, the second time elapsed and the third time elapsed are distinct from one another.
A call answer method, applied to a first electronic device , wherein the method comprises: establishing, by the first electronic device , a Bluetooth link to a second electronic device according to a Bluetooth protocol; receiving, by the first electronic device , call request information sent by a third electronic device ; sending, by the first electronic device , the call request information to the second electronic device through the Bluetooth link; establishing, by the first electronic device , a wireless fidelity, Wi-Fi, link to the second electronic device according to a Wi-Fi protocol; if the first electronic device receives an answer command sent by the second electronic device in response to the call request information through the Bluetooth link, sending, by the first electronic device , the answer command to the third electronic device ; establishing, by the first electronic device , a call with the third electronic device ; and receiving, by the first electronic device , a downlink audio signal sent by the third electronic device , and sending the downlink audio signal to the second electronic device through the Wi-Fi link; or receiving, by the first electronic device , an uplink audio signal sent by the second electronic device through the Wi-Fi link, and sending the uplink audio signal to the third electronic device . establishing, by the first electronic device , a Bluetooth link to a second electronic device according to a Bluetooth protocol; receiving, by the first electronic device , call request information sent by a third electronic device ; sending, by the first electronic device , the call request information to the second electronic device through the Bluetooth link; establishing, by the first electronic device , a wireless fidelity, Wi-Fi, link to the second electronic device according to a Wi-Fi protocol; if the first electronic device receives an answer command sent by the second electronic device in response to the call request information through the Bluetooth link, sending, by the first electronic device , the answer command to the third electronic device ; establishing, by the first electronic device , a call with the third electronic device ; and receiving, by the first electronic device , a downlink audio signal sent by the third electronic device , and sending the downlink audio signal to the second electronic device through the Wi-Fi link; or receiving, by the first electronic device , an uplink audio signal sent by the second electronic device through the Wi-Fi link, and sending the uplink audio signal to the third electronic device .
A traction battery, comprising several interconnected battery cells , each having positive and negative electrode plates arranged alternately in a cell housing, and comprising several battery trays , each of which serves to accommodate a plurality of battery cells , wherein each battery tray is electrolyte-proof and electrolyte-tight, as well ascomprising a battery box which accommodates the battery trays , wherein adjacent battery trays are being arranged at a distance from one another while leaving a gap space , characterized in that underneath the battery trays a distribution gap space is formed which is fluidically connected to the gap spaces formed between the battery trays , wherein the distribution gap space has different flow cross-sections in the direction of flow.
A device (1; 1') for measuring an electrical quantity (U) of one phase of an AC electric current of an overhead electrical network , this device including: - a sensor , configured to be attached to an electric line of the overhead electrical network, this sensor comprising: ▪ an electrically conductive plate , ▪ an electrical conductor , configured to electrically connect the plate to the electric line, for the circulation of the first electric current (I 1 ) from the electric line through the electrical conductor, - a computation unit , configured to determine the electrical quantity from a value of the first electric current (I 1 ) and a value of an electrical capacity (C pt ) between the plate and the ground , characterized in that the device further includes: - a generator , electrically connected to the electrical conductor and configured to inject a second electric current through the electrical conductor, this second electric current having a frequency different from the frequency of the first electric current, the computation unit further being configured to compute the value of the electrical capacity (C pt ) between the plate and the ground as a function of a value of the second electric current (I 2 ). - a sensor , configured to be attached to an electric line of the overhead electrical network, this sensor comprising: ▪ an electrically conductive plate , ▪ an electrical conductor , configured to electrically connect the plate to the electric line, for the circulation of the first electric current (I 1 ) from the electric line through the electrical conductor, ▪ an electrically conductive plate , ▪ an electrical conductor , configured to electrically connect the plate to the electric line, for the circulation of the first electric current (I 1 ) from the electric line through the electrical conductor, - a computation unit , configured to determine the electrical quantity from a value of the first electric current (I 1 ) and a value of an electrical capacity (C pt ) between the plate and the ground , - a generator , electrically connected to the electrical conductor and configured to inject a second electric current through the electrical conductor, this second electric current having a frequency different from the frequency of the first electric current,
Plastic moulded part, in particular injection-moulded part, with a main body and a surface layer , either the main body or the surface layer being provided with a black and/or grey marking , wherein the surface layer is connected to the main body as an in-mould film by the in-mould method, and (a) within the base material of the surface layer or (b) within the base material of the main body TiO2 pigments are provided and, under selective irradiation with UV laser light, a black and/or grey marking determining the decoration and restricted to the region of the selective irradiation is obtained by burning or charring the base material of the surface layer or the base material of the main body , wherein the base material of the surface layer is colourless or amorphous, wherein the surface layer , or at least the base material of the main body , is a styrene-based copolymer. (a) within the base material of the surface layer or (b) within the base material of the main body TiO2 pigments are provided and, under selective irradiation with UV laser light, a black and/or grey marking determining the decoration and restricted to the region of the selective irradiation is obtained by burning or charring the base material of the surface layer or the base material of the main body ,
A method, comprising: determining a power saving profile based on a state of a user equipment; providing said power saving profile via a signaling message to a serving network element, wherein said power saving profile indicates either a preference for less emphasis on power saving and more emphasis on performance, or a preference for more emphasis on power saving and less emphasis on performance, and characterised in that said power saving profile is a discontinuous reception profile and said discontinuous reception profile depends on at least one of: a user setting of the user equipment, a user activity or inactivity, an application running in the user equipment, an expected traffic characteristic associated with the application running in the user equipment, a history of traffic characteristics for communication dependent on a time of day, a user calendar information, a location information, a sensor parameter of the user equipment and a history of application-dependent traffic characteristics of the user equipment. determining a power saving profile based on a state of a user equipment; providing said power saving profile via a signaling message to a serving network element, wherein said power saving profile indicates either a preference for less emphasis on power saving and more emphasis on performance, or a preference for more emphasis on power saving and less emphasis on performance, and characterised in that said power saving profile is a discontinuous reception profile and said discontinuous reception profile depends on at least one of: a user setting of the user equipment, a user activity or inactivity, an application running in the user equipment, an expected traffic characteristic associated with the application running in the user equipment, a history of traffic characteristics for communication dependent on a time of day, a user calendar information, a location information, a sensor parameter of the user equipment and a history of application-dependent traffic characteristics of the user equipment.
A method comprising: receiving, by a base station distributed (gNB-DU) unit from a wireless device (UE) in a radio resource control, RRC, idle state or an RRC inactive state, one or more transport blocks (TB(s)) via a periodic resource; characterised by : determining, by the base station distributed unit, that a time alignment timer associated with the periodic resource is expired; and sending, by the base station distributed unit to a base station central unit (gNB-CU), one or more messages comprising a cause value indicating release of the periodic resource based on the expiration of the time alignment timer. receiving, by a base station distributed (gNB-DU) unit from a wireless device (UE) in a radio resource control, RRC, idle state or an RRC inactive state, one or more transport blocks (TB(s)) via a periodic resource; characterised by : determining, by the base station distributed unit, that a time alignment timer associated with the periodic resource is expired; and sending, by the base station distributed unit to a base station central unit (gNB-CU), one or more messages comprising a cause value indicating release of the periodic resource based on the expiration of the time alignment timer. determining, by the base station distributed unit, that a time alignment timer associated with the periodic resource is expired; and sending, by the base station distributed unit to a base station central unit (gNB-CU), one or more messages comprising a cause value indicating release of the periodic resource based on the expiration of the time alignment timer.
An external control device for a timepiece , including a crown arranged to be operated by a user, to control, through a driver , a rotation of a component internal to said timepiece , said device including a tube arranged to pass through an outer wall of said timepiece and to be fastened thereto while ensuring the water-resistant retention of said external control device , said crown carrying a first barrel screwed onto said tube , and said first barrel and/or said tube guiding, along an axis (D), a second barrel which is coaxial with said first barrel and which is movable only in rotation about said axis (D) and which includes said driver at a distal end arranged to be inserted into said timepiece , said first barrel being movable axially in the direction of said axis (D) and in rotation around said axis (D), said first barrel including a first unidirectional toothing , said second barrel including a second unidirectional toothing coaxial and opposing said first unidirectional toothing , and in which said tube contains at least one elastic return means bearing on a lower front surface of said tube or of a bearing element attached to said tube , said at least one elastic return means tending to move said first barrel away from said driver by bearing on an upper front surface included in said first barrel or said first unidirectional toothing , and in which said first unidirectional toothing and said second unidirectional toothing are in the position of maximum separation from one another when said crown is completely screwed onto said tube as close as possible to said driver , and are in a position of meshing with each other when said crown is completely unscrewed and is farthest from said driver , the cooperation between said first unidirectional toothing and said second unidirectional toothing allowing to rotate said first barrel in a first single direction of rotation of said crown , and preventing the rotation of said first barrel in a second direction opposite to said first direction by jumping against said elastic return means in the manner of a pawl.