mhurhangee/patent-ind-claim-en huggingface dataset:
A component carrier , wherein the component carrier comprises: a stack comprising at least one electrically conductive layer structure and/or at least one electrically insulating layer structure ; and at least one double layer structure connected with the stack, wherein the double layer structure is composed of: an electrically conductive patterned layer structure ; and a further patterned layer structure made of a two-dimensional material; wherein the patterned layer structure and the further patterned layer structure have at least partly the same pattern, characterized in that the double layer structure is an antenna, wherein the double layer structure forms a dual band antenna where the further patterned layer structure forms a dipole antenna for higher end frequencies and the electrically conductive patterned layer structure forms a dipole antenna for lower end frequencies. a stack comprising at least one electrically conductive layer structure and/or at least one electrically insulating layer structure ; and at least one double layer structure connected with the stack, wherein the double layer structure is composed of: an electrically conductive patterned layer structure ; and a further patterned layer structure made of a two-dimensional material; wherein the patterned layer structure and the further patterned layer structure have at least partly the same pattern, characterized in that the double layer structure is an antenna, wherein an electrically conductive patterned layer structure ; and a further patterned layer structure made of a two-dimensional material; wherein the patterned layer structure and the further patterned layer structure have at least partly the same pattern, characterized in that the double layer structure is an antenna, wherein the double layer structure forms a dual band antenna where the further patterned layer structure forms a dipole antenna for higher end frequencies and the electrically conductive patterned layer structure forms a dipole antenna for lower end frequencies.
Preparations for stabilising and forming the texture of living tissue comprising a combination of: A) one or more inhibitors of tissue matrix breakdown by hydrolytic enzymes elastase, collagenase or hyaluronidase, selected from turmeric or turmeric extract, frankincense extract, persimmon, Devil's Claw root extract, olive oil, milfoil, rhubarb, brown seaweed extract or green tea or mixtures thereof; B) stimulators of proteoglycan matrix formation, selected from acid-containing/acid-type substances, selected from bilberry/blueberry/ cranberry extract; hibiscus extract; Morinda citrifolia (noni fruit); pomegranate peel extract; paprika; and one or more C) vasoactive substances selected from calendula flower extract, tagetes flower extract; white lily extract; tomato extract; niacin; and furthermore D) one or more nerve function activators (neurotropic substances), selected from B vitamins, selected from B1, B2, B5, B6, B12, and cereal extracts such as buckwheat extract, wherein the active substances A), B), C) and D) are in each case present in both a topical administration form and a systemic administration form, wherein the preparations assume the form of pharmaceutical agents for systemic administration in the form of sugar-coated tablets, capsules or tablets and for topical administration in the form of emulsions/lotions, creams, ointments, gels, fluids or sprays. A) one or more inhibitors of tissue matrix breakdown by hydrolytic enzymes elastase, collagenase or hyaluronidase, selected from turmeric or turmeric extract, frankincense extract, persimmon, Devil's Claw root extract, olive oil, milfoil, rhubarb, brown seaweed extract or green tea or mixtures thereof; B) stimulators of proteoglycan matrix formation, selected from acid-containing/acid-type substances, selected from bilberry/blueberry/ cranberry extract; hibiscus extract; Morinda citrifolia (noni fruit); pomegranate peel extract; paprika; and one or more C) vasoactive substances selected from calendula flower extract, tagetes flower extract; white lily extract; tomato extract; niacin; and furthermore D) one or more nerve function activators (neurotropic substances), selected from B vitamins, selected from B1, B2, B5, B6, B12, and cereal extracts such as buckwheat extract, wherein the active substances A), B), C) and D) are in each case present in both a topical administration form and a systemic administration form, wherein the preparations assume the form of pharmaceutical agents for systemic administration in the form of sugar-coated tablets, capsules or tablets and for topical administration in the form of emulsions/lotions, creams, ointments, gels, fluids or sprays.
A method performed by a network mediation device in a communication network of a communication service provider, the method comprising: receiving data intercepted at a point of interception in the communication network as part of a lawful interception service; labelling the data with a field that has a value set to identify the point of interception at which the data was intercepted, wherein labeling the data comprises determining the value to which to set the field based on information stored in the network mediation device indicating different values to which to respectively set the field for different possible points of interception in the communication network ; and sending the labeled data over a handover interface from the network mediation device towards a law enforcement monitoring facility . receiving data intercepted at a point of interception in the communication network as part of a lawful interception service; labelling the data with a field that has a value set to identify the point of interception at which the data was intercepted, wherein labeling the data comprises determining the value to which to set the field based on information stored in the network mediation device indicating different values to which to respectively set the field for different possible points of interception in the communication network ; and sending the labeled data over a handover interface from the network mediation device towards a law enforcement monitoring facility .
A semiconductor device (87; 96; 113) comprising: a semiconductor layer of a first conductivity type; body regions (12; 39; 46; 55) of a second conductivity type plurally formed on a surface layer portion of the semiconductor layer at an interval; a source region (15; 57) of the first conductivity type formed on a surface layer portion of each body region (12; 39; 46; 55); a gate insulating film provided on the semiconductor layer to extend between the body regions (12; 39; 46; 55)adjacent to each other; a gate electrode provided on the gate insulating film and opposed to the body regions (12; 46; 55); a drain electrode formed on a substrate of the semiconductor layer ; and a field relaxation portion provided between the body regions (1 2; 39; 46; 55) adjacent to each other for relaxing an electric field generated in the gate insulating film , characterized in that the gate insulating film has a low dielectric constant portion (89; 92; 94) opposed to the body regions (12; 39; 46; 55) and a high dielectric constant portion (90; 93; 95), wherein the field relaxation portion located between the body regions (12; 46; 55) comprises at least the high dielectric constant portion (90; 93; 95) as a field relaxation portion. a semiconductor layer of a first conductivity type; body regions (12; 39; 46; 55) of a second conductivity type plurally formed on a surface layer portion of the semiconductor layer at an interval; a source region (15; 57) of the first conductivity type formed on a surface layer portion of each body region (12; 39; 46; 55); a gate insulating film provided on the semiconductor layer to extend between the body regions (12; 39; 46; 55)adjacent to each other; a gate electrode provided on the gate insulating film and opposed to the body regions (12; 46; 55); a drain electrode formed on a substrate of the semiconductor layer ; and a field relaxation portion provided between the body regions (1 2; 39; 46; 55) adjacent to each other for relaxing an electric field generated in the gate insulating film , characterized in that the gate insulating film has a low dielectric constant portion (89; 92; 94) opposed to the body regions (12; 39; 46; 55) and a high dielectric constant portion (90; 93; 95), wherein the field relaxation portion located between the body regions (12; 46; 55) comprises at least the high dielectric constant portion (90; 93; 95) as a field relaxation portion.
A circuit , comprising: - a first node (AV33M; ARESETV33M) configured to receive a reset signal (hold_rst), - a reset drive stage driving a reset node (IOFT), the reset drive stage coupled to the first node (AV33M; ARESETV33M) via a reset signal path to propagate the reset signal (hold_rst) to the reset drive stage , wherein the reset drive stage is activated as a result of assertion of a reset actuation state of said reset signal (hold_rst), - a sensing node (120; ZIEXTRESETV33M; pad_ext_rstn) coupled to the reset node (IOFT) via a signal sensing path , the sensing node sensitive to a signal level (IOFT_filt) of the reset node (IOFT) reaching a reset threshold , - a reset signal hold circuit block coupled to the first node (AV33M; ARESETV33M) and configured to receive a reset command signal (internal_rst) and assert said reset actuation state of the reset signal (hold_rst) at the first node (AV33M; ARESETV33M) as a result of the reset command signal (internal_rst) received, wherein the reset signal hold circuit block is coupled to the sensing node (120; ZIEXTRESETV33M; pad_ext_rstn) and configured to de-assert the reset actuation state of the reset signal (hold_rst) at the first node (AV33M; ARESETV33M) as a result of the signal level at the reset node (IOFT) reaching said reset threshold . - a first node (AV33M; ARESETV33M) configured to receive a reset signal (hold_rst), - a reset drive stage driving a reset node (IOFT), the reset drive stage coupled to the first node (AV33M; ARESETV33M) via a reset signal path to propagate the reset signal (hold_rst) to the reset drive stage , wherein the reset drive stage is activated as a result of assertion of a reset actuation state of said reset signal (hold_rst), - a sensing node (120; ZIEXTRESETV33M; pad_ext_rstn) coupled to the reset node (IOFT) via a signal sensing path , the sensing node sensitive to a signal level (IOFT_filt) of the reset node (IOFT) reaching a reset threshold , - a reset signal hold circuit block coupled to the first node (AV33M; ARESETV33M) and configured to receive a reset command signal (internal_rst) and assert said reset actuation state of the reset signal (hold_rst) at the first node (AV33M; ARESETV33M) as a result of the reset command signal (internal_rst) received, wherein the reset signal hold circuit block is coupled to the sensing node (120; ZIEXTRESETV33M; pad_ext_rstn) and configured to de-assert the reset actuation state of the reset signal (hold_rst) at the first node (AV33M; ARESETV33M) as a result of the signal level at the reset node (IOFT) reaching said reset threshold .
A power control circuit for a power supply system supplying power to an electronic device, wherein the power supply system comprises a power supply and a voltage converter , and the voltage converter converts a supply voltage of the power supply into a predetermined voltage and outputs the predetermined voltage to the electronic device, the power control circuit comprising: a switch (M1), having a first terminal coupled to the power supply , a second terminal coupled to the voltage converter , and a control terminal; a first switch controller (S1, D1) comprising a power-on switch (S1), the first switch controller (S1, D1) being coupled to the control terminal of the switch (M1) and the electronic device and controlling the switch (M1) to couple the power supply to the voltage converter according to a turning-on event when the power supply system is turned on by the power-on switch (S1); and a second switch controller (M2, D3) coupled between the control terminal of the switch (M1) and the electronic device, continuously receiving a high voltage level signal (SS) from the electronic device when the electronic device is operating to control the switch (M1) to maintain the coupling of the power supply to the voltage converter ; wherein the switch (M1) does not couple the power supply to the voltage converter before the turning-on event of the power supply system ; and wherein the power control circuit is configured such that when the power supply is plugged into an external AC voltage supply but before the power-on switch (S1) is turned on, the power supply is isolated from the voltage converter . a switch (M1), having a first terminal coupled to the power supply , a second terminal coupled to the voltage converter , and a control terminal; a first switch controller (S1, D1) comprising a power-on switch (S1), the first switch controller (S1, D1) being coupled to the control terminal of the switch (M1) and the electronic device and controlling the switch (M1) to couple the power supply to the voltage converter according to a turning-on event when the power supply system is turned on by the power-on switch (S1); and a second switch controller (M2, D3) coupled between the control terminal of the switch (M1) and the electronic device, continuously receiving a high voltage level signal (SS) from the electronic device when the electronic device is operating to control the switch (M1) to maintain the coupling of the power supply to the voltage converter ; wherein the switch (M1) does not couple the power supply to the voltage converter before the turning-on event of the power supply system ; and wherein the power control circuit is configured such that when the power supply is plugged into an external AC voltage supply but before the power-on switch (S1) is turned on, the power supply is isolated from the voltage converter .
Transmission housing for a motor vehicle transmission, having a transmission actuator arranged thereon, a main shaft and at least one countershaft being provided in the transmission housing , wherein the outer contour of the transmission housing is adapted to those sections of the outer contours of the main shaft and the at least one countershaft which lie towards the outer side, characterised in that the outer contour of the transmission housing has at least one bevelled surface , and the transmission actuator is provided on the bevelled surface in such a manner that it does not protrude beyond a theoretical outer contour of the transmission housing that is rectangular or cylindrical in dependence upon the dimensions of the main shaft and the at least one countershaft .
A method of controlling building systems , the method comprising: detecting a status parameter of an elevator door; displaying the status parameter of the elevator door on a device ;detecting a status parameter of a first door (205-1); displaying the status parameter of the first door (205-1) on the device ; detecting a status parameter of a first door lock (205a-1), the first door lock (205a-1) being operably connected to the first door (205-1); displaying the status parameter of the first door lock (205a-1) on the device ; closing the elevator door in response to at least one of the status parameter of the first door (205-1) and the status parameter of the first door lock (205a-1); and / or closing a second door (205-2) in response to at least one of the status parameter of the first door (205-1) and the status parameter of the first door lock (205a-1). detecting a status parameter of an elevator door; displaying the status parameter of the elevator door on a device ;detecting a status parameter of a first door (205-1); displaying the status parameter of the first door (205-1) on the device ; detecting a status parameter of a first door lock (205a-1), the first door lock (205a-1) being operably connected to the first door (205-1); displaying the status parameter of the first door lock (205a-1) on the device ; closing the elevator door in response to at least one of the status parameter of the first door (205-1) and the status parameter of the first door lock (205a-1); and / or closing a second door (205-2) in response to at least one of the status parameter of the first door (205-1) and the status parameter of the first door lock (205a-1).
A sample processor , comprising: a flow cell unit comprising a sample port , a processing fluid port , and a vacuum port ; a fluid system comprising: a sample container , a sheath fluid container (130, T), a sample line for communicating the sample container to the sample port of the flow cell unit ; a processing fluid line communicating the sheath fluid container (130, T) to the processing fluid port of the flow cell unit ; a vacuum line in communication with the flow cell unit ; and an air pump comprising a first output port and a second output port , wherein pressurized gas is generated at the first output port , the first output port is in communication with the sample container and the sheath fluid container , a vacuum is generated at the second output port , and the second output port is in communication with the vacuum port of the flow cell unit through the vacuum line . a flow cell unit comprising a sample port , a processing fluid port , and a vacuum port ; a fluid system comprising: a sample container , a sheath fluid container (130, T), a sample line for communicating the sample container to the sample port of the flow cell unit ; a processing fluid line communicating the sheath fluid container (130, T) to the processing fluid port of the flow cell unit ; a vacuum line in communication with the flow cell unit ; and an air pump comprising a first output port and a second output port , wherein pressurized gas is generated at the first output port , the first output port is in communication with the sample container and the sheath fluid container , a vacuum is generated at the second output port , and the second output port is in communication with the vacuum port of the flow cell unit through the vacuum line . a sample container , a sheath fluid container (130, T), a sample line for communicating the sample container to the sample port of the flow cell unit ; a processing fluid line communicating the sheath fluid container (130, T) to the processing fluid port of the flow cell unit ; a vacuum line in communication with the flow cell unit ; and an air pump comprising a first output port and a second output port , wherein pressurized gas is generated at the first output port , the first output port is in communication with the sample container and the sheath fluid container , a vacuum is generated at the second output port , and the second output port is in communication with the vacuum port of the flow cell unit through the vacuum line .
Manufacturing machine for additive manufacturing methods, comprising: - a closed manufacturing chamber with a manufacturing space for receiving particulate manufacturing material and having a wall , the manufacturing chamber comprising at least one energy introduction section , wherein transformation energy of at least one energy source can be introduced into the manufacturing space via the at least one energy introduction section , - at least one supply device for supplying particulate manufacturing material into the manufacturing space , - at least one manufacturing platform arranged in the manufacturing chamber , on which manufacturing material can be deposited, wherein the manufacturing platform is displaceable in the manufacturing chamber to shape manufacturing material, and wherein the manufacturing platform at least partially delimits the manufacturing space , and - at least one drive device by which the manufacturing chamber or a part of the manufacturing chamber is movable with respect to at least one degree of freedom, so that the manufacturing material gets into the manufacturing space in a desired area and is homogeneously distributed in the desired area. - a closed manufacturing chamber with a manufacturing space for receiving particulate manufacturing material and having a wall , the manufacturing chamber comprising at least one energy introduction section , wherein transformation energy of at least one energy source can be introduced into the manufacturing space via the at least one energy introduction section , - at least one supply device for supplying particulate manufacturing material into the manufacturing space , - at least one manufacturing platform arranged in the manufacturing chamber , on which manufacturing material can be deposited, wherein the manufacturing platform is displaceable in the manufacturing chamber to shape manufacturing material, and wherein the manufacturing platform at least partially delimits the manufacturing space , and - at least one drive device by which the manufacturing chamber or a part of the manufacturing chamber is movable with respect to at least one degree of freedom, so that the manufacturing material gets into the manufacturing space in a desired area and is homogeneously distributed in the desired area.
A method of assembling a tractor (A1, A2) comprising a hot-wind blocking plate to be disposed between a motor unit and an operation unit , the method is characterized by comprising steps of: providing an attaching hole for attachment of a wiper before cutting an upper end edge portion of an outer edge portion of the hot-wind blocking plate ; when the tractor is a cabin type (A2) which requires a wiper , leaving the upper end edge portion of the hot-wind blocking plate without cutting; when the tractor is a ROPS type (A1) which requires no wiper, cutting the upper end edge portion of the hot-wind blocking plate so as to adjust a height of the hot-wind blocking plate ; and mounting an operation unit component in the outer edge portion of the hot-wind blocking plate , a position where the operation unit component is mounted is changeable depending on a specification of the operation unit . providing an attaching hole for attachment of a wiper before cutting an upper end edge portion of an outer edge portion of the hot-wind blocking plate ; when the tractor is a cabin type (A2) which requires a wiper , leaving the upper end edge portion of the hot-wind blocking plate without cutting; when the tractor is a ROPS type (A1) which requires no wiper, cutting the upper end edge portion of the hot-wind blocking plate so as to adjust a height of the hot-wind blocking plate ; and mounting an operation unit component in the outer edge portion of the hot-wind blocking plate , a position where the operation unit component is mounted is changeable depending on a specification of the operation unit .