mhurhangee/patent-ind-claim-en huggingface dataset:
An output capacitor-less low drop out, LDO, regulator, comprising: an error amplifier configured to receive a bandgap reference input (Bandgap ref) and comprising an output and first and second additional nodes; a driver receiving the output of the error amplifier and providing an output voltage at an output node (OUT) of the LDO regulator; first and second capacitors coupled between the first and second additional nodes of the error amplifier , respectively and said output node (OUT); and a first resistor feedback network coupled with the output node (OUT), the first resistor network configured to provide a feedback output as an input to the error amplifier ; wherein the output node (OUT) of the low dropout regulator does not required to be coupled with an output capacitor; the output capacitor-less LDO regulator being characterised in that it further comprises: a second resistor feedback network (210, cmp_fb) coupled with the output node (OUT), and an overshoot protection circuit coupled to the second resistor feedback network (210; cmp_fb) and being connected to the output node (OUT) to pull back the output voltage when it exceeds beyond a predetermined value. an error amplifier configured to receive a bandgap reference input (Bandgap ref) and comprising an output and first and second additional nodes; a driver receiving the output of the error amplifier and providing an output voltage at an output node (OUT) of the LDO regulator; first and second capacitors coupled between the first and second additional nodes of the error amplifier , respectively and said output node (OUT); and a first resistor feedback network coupled with the output node (OUT), the first resistor network configured to provide a feedback output as an input to the error amplifier ; wherein the output node (OUT) of the low dropout regulator does not required to be coupled with an output capacitor; the output capacitor-less LDO regulator being characterised in that it further comprises: a second resistor feedback network (210, cmp_fb) coupled with the output node (OUT), and an overshoot protection circuit coupled to the second resistor feedback network (210; cmp_fb) and being connected to the output node (OUT) to pull back the output voltage when it exceeds beyond a predetermined value.
Shaped metal sheet (F), having: a first side (FE) which is coated with an electrically insulating layer , wherein an electrically conductive device is applied to or embedded into the electrically insulating layer , as well as a second side (FZ), wherein an inlet opening and an outlet opening are provided in the shaped metal sheet (F), wherein a first bead is provided on an edge of the first side (FE), and furthermore third beads are also provided on the first side, which surround the inlet opening and the outlet opening . a first side (FE) which is coated with an electrically insulating layer , wherein an electrically conductive device is applied to or embedded into the electrically insulating layer , as well as a second side (FZ), wherein an inlet opening and an outlet opening are provided in the shaped metal sheet (F), wherein a first bead is provided on an edge of the first side (FE), and furthermore third beads are also provided on the first side, which surround the inlet opening and the outlet opening .
An Al-Sc composite comprising from 1.0 at% to 65 at% scandium (Sc) and from 35 at% to 99 at% aluminum (Al), having a microstructure including a first aluminum matrix phase and a second phase dispersed therethrough, the second phase comprising a compound corresponding to the formula Al x Sc y , where x is from 0 to 3 and y is from 1 to 2, wherein the second phase further comprises from 1.0 mol% to 70 mol% scandium nitride (ScN).
A photosensitive resin composition, comprising: (A) an alkali-soluble resin; (B) a compound which generates an acid when exposed to light; (C) a thermal crosslinking agent; (D) a nitrogen-containing aromatic compound represented by the following formula : wherein R 1 represents a hydrogen atom or a hydrocarbon group; R 2 represents a hydrogen atom, an amino group or a phenyl group; and A and B each independently represent a nitrogen atom, or a carbon atom and a hydrogen atom bonded thereto; and further comprising (F) an acryl resin. (A) an alkali-soluble resin; (B) a compound which generates an acid when exposed to light; (C) a thermal crosslinking agent; (D) a nitrogen-containing aromatic compound represented by the following formula : wherein R 1 represents a hydrogen atom or a hydrocarbon group; R 2 represents a hydrogen atom, an amino group or a phenyl group; and A and B each independently represent a nitrogen atom, or a carbon atom and a hydrogen atom bonded thereto; and further comprising (F) an acryl resin.
A method for service management of a passive optical fiber network comprising an optical line terminal, OLT, an optical network unit, ONU, and an optical network unit management control interface for realizing a virtualization network function, OMCI VNF, characterized in that the method comprises, determining a network connection status between the OLT and the OMCI VNF; maintaining communication with the OLT (S100); acquiring optical network unit management control interface, OMCI, frame data transferred via the OLT (S200); acquiring service information of the ONU according to the OMCI frame data (S300); performing the service management to the passive optical fiber network according to the network connection status between the OLT and the OMCI VNF, and service information of the ONU (S400), which comprises, performing service management to the ONU according to the service information of the ONU, in response to a disconnection between the OLT and the OMCI VNF; and performing a synchronization of the service information of the ONU with the OMCI VNF, according to the service information of the ONU, in response to a recovery of network status from disconnected status to connected status, between the OLT and the OMCI VNF (S420); and responding, by a passive optical fiber network service management device provided external to the OLT, to an OMCI request of the ONU instead of the OMCI VNF to maintain proper performance of service of the ONU. determining a network connection status between the OLT and the OMCI VNF; maintaining communication with the OLT (S100); acquiring optical network unit management control interface, OMCI, frame data transferred via the OLT (S200); acquiring service information of the ONU according to the OMCI frame data (S300); performing the service management to the passive optical fiber network according to the network connection status between the OLT and the OMCI VNF, and service information of the ONU (S400), which comprises, performing service management to the ONU according to the service information of the ONU, in response to a disconnection between the OLT and the OMCI VNF; and performing a synchronization of the service information of the ONU with the OMCI VNF, according to the service information of the ONU, in response to a recovery of network status from disconnected status to connected status, between the OLT and the OMCI VNF (S420); and responding, by a passive optical fiber network service management device provided external to the OLT, to an OMCI request of the ONU instead of the OMCI VNF to maintain proper performance of service of the ONU. performing service management to the ONU according to the service information of the ONU, in response to a disconnection between the OLT and the OMCI VNF; and performing a synchronization of the service information of the ONU with the OMCI VNF, according to the service information of the ONU, in response to a recovery of network status from disconnected status to connected status, between the OLT and the OMCI VNF (S420); and
An information transmission method, comprising: determining (S220) M available uplink resources from N uplink resources, wherein the N uplink resources are used for carrying N sets of uplink feedback information, an i-th set of uplink feedback information is used for indicating data transmission condition in an i-th set of downlink resources, and i is greater than 1, the i-th set of downlink resources includes all of an (i-1)-th set of downlink resources, where N is a positive integer greater than 1, i=2, 3, 4, ..., N, and M is a positive integer greater than 1 and less than or equal to N; and transmitting (S230), through the M available uplink resources, M sets of uplink feedback information corresponding to the M available uplink resources, characterized in that the i-th set of uplink feedback information includes all of an (i-1)-th set of uplink feedback information. determining (S220) M available uplink resources from N uplink resources, wherein the N uplink resources are used for carrying N sets of uplink feedback information, an i-th set of uplink feedback information is used for indicating data transmission condition in an i-th set of downlink resources, and i is greater than 1, the i-th set of downlink resources includes all of an (i-1)-th set of downlink resources, where N is a positive integer greater than 1, i=2, 3, 4, ..., N, and M is a positive integer greater than 1 and less than or equal to N; and transmitting (S230), through the M available uplink resources, M sets of uplink feedback information corresponding to the M available uplink resources, characterized in that the i-th set of uplink feedback information includes all of an (i-1)-th set of uplink feedback information.
A redundancy module for a pneumatic braking system of a vehicle , in particular a utility vehicle , having spring-loaded brakes on at least one axle (VA, HA), comprising: a parking brake pressure port for receiving a parking brake pressure (pB), a spring-loaded port for providing a spring-loaded pressure (pF) and a redundancy pressure port for receiving a redundancy pressure (pR), and a piston assembly , having a reverse piston , characterized in that the reverse piston comprises a parking brake pressure control surface , a spring-loaded control surface and a redundancy pressure control surface , wherein a parking brake pressure (pB) acting on the parking brake control surface causes the control of a spring-loaded pressure (pF) in the same direction, and a redundancy pressure (pR) acting on the redundancy pressure control surface causes an inverse control of the spring-loaded pressure (pF). a parking brake pressure port for receiving a parking brake pressure (pB), a spring-loaded port for providing a spring-loaded pressure (pF) and a redundancy pressure port for receiving a redundancy pressure (pR), and a piston assembly , having a reverse piston , characterized in that the reverse piston comprises a parking brake pressure control surface , a spring-loaded control surface and a redundancy pressure control surface , wherein a parking brake pressure (pB) acting on the parking brake control surface causes the control of a spring-loaded pressure (pF) in the same direction, and a redundancy pressure (pR) acting on the redundancy pressure control surface causes an inverse control of the spring-loaded pressure (pF).
Material biocompatible and implantable in the human body in the form of a thread used to feed a three-dimensional printer of the thread or inkjet type, for the obtainment of a device that can be implanted in the human body or a spacer device for treating an infection in a bone or a joint location, comprising a plastic material comprising low density polyethylene or high density polyethylene or ultra high molecular weight polyethylene (UHMWPE) or a mixture of the above, characterized in that it comprises an additive, wherein said additive is a pharmaceutical or medical substance comprising gentamicin sulphate, and a radio-opacifying agent, in that said biocompatible material is moldeable and it is extruded into said thread and in that said biocompatible material comprises a further additive comprising a soluble and/or resorbable ceramic material, in form of powder or granules, that is tricalcium phosphate or calcium sulphate or hydroxyapatite.
A negative electrode comprising: a current collector ; a first active material layer disposed on the current collector and including at least one concave portion indented toward the current collector; a stress-relaxing portion including an aqueous polymer and/or an organic polymer disposed in the concave portion; and a second active material layer disposed on the first active material layer and separated from the current collector. a current collector ; a first active material layer disposed on the current collector and including at least one concave portion indented toward the current collector; a stress-relaxing portion including an aqueous polymer and/or an organic polymer disposed in the concave portion; and a second active material layer disposed on the first active material layer and separated from the current collector.
A non-therapeutic, cosmetic method for diminishing dermatological signs of aging in human skin comprising, in any order and in rotation, in series or alternately, the steps of topically applying to an area of the skin in need thereof, at least once daily, a first skin treatment composition comprising, in a physiologically compatible vehicle, an effective amount of a retinoid, for a first period of time comprising from 1 to 31 days; topically applying to said skin, at least once daily, a second skin treatment composition that is different from said first skin treatment composition, comprising, in a physiologically compatible vehicle, one or more α-hydroxy acids and/or one or more antioxidants, for a second period of time comprising from 1 to 31 days; and repeating steps and for a number of times sufficient to diminish said dermatological signs of skin aging.
An assembly (100; 200) for a hand brake valve, comprising a metal rod (102; 202) with a non-circular external surface (102a; 202a); a handle insert (104; 204) at least partially surrounding the non-circular external surface (102a; 202a) of the metal rod (102; 202), and, wherein the assembly (100; 200) further comprises structural means (100a; 200a) that is configured to prevent any rotational movement between the handle insert (104; 204) and at least the metal rod (102; 202), characterized in that , the structural means (100a; 200a) is further configured to allow a rectilinear movement of the handle insert (104; 204) in relation to at least the metal rod (102; 202), in that the assembly (100; 200) further comprises an external shell (110; 210) which is positively coupled to the handle insert (104; 204), wherein the external shell (110; 210) encloses at least partially the handle insert (104 204), and in that the external shell (110; 210) is positively coupled to the handle insert (104; 204) such that there is no relative rotational movement possible between the external shell (110; 210) and the handle insert (104; 204). a metal rod (102; 202) with a non-circular external surface (102a; 202a); a handle insert (104; 204) at least partially surrounding the non-circular external surface (102a; 202a) of the metal rod (102; 202), and, wherein the assembly (100; 200) further comprises structural means (100a; 200a) that is configured to prevent any rotational movement between the handle insert (104; 204) and at least the metal rod (102; 202), characterized in that , the structural means (100a; 200a) is further configured to allow a rectilinear movement of the handle insert (104; 204) in relation to at least the metal rod (102; 202), in that the assembly (100; 200) further comprises an external shell (110; 210) which is positively coupled to the handle insert (104; 204), wherein the external shell (110; 210) encloses at least partially the handle insert (104 204), and in that the external shell (110; 210) is positively coupled to the handle insert (104; 204) such that there is no relative rotational movement possible between the external shell (110; 210) and the handle insert (104; 204).
An apparatus for permanently occluding a vein, comprising: a handle , a cartridge , the handle defining a receptacle configured to receive the cartridge, the receptacle including a male coupling configured and positioned to receive a female coupling of the cartridge when the cartridge and the handle engage, the handle further including a first motor, the male coupling is drivably connected to the first motor so that the first motor, when activated, drives the male coupling; the cartridge comprising an elongated intraluminal member shaped and dimensioned for passage through blood vessels of a subject, the intraluminal member including a proximal end and a distal end, wherein the distal end comprises a vein wall disruptor; wherein the first motor is configured to rotate the distal end of the intraluminal member to damage a vein wall; and, the apparatus further comprises a second motor coupled to the intraluminal member to withdraw the intraluminal member. a handle , a cartridge , the handle defining a receptacle configured to receive the cartridge, the receptacle including a male coupling configured and positioned to receive a female coupling of the cartridge when the cartridge and the handle engage, the handle further including a first motor, the male coupling is drivably connected to the first motor so that the first motor, when activated, drives the male coupling; the cartridge comprising an elongated intraluminal member shaped and dimensioned for passage through blood vessels of a subject, the intraluminal member including a proximal end and a distal end, wherein the distal end comprises a vein wall disruptor; wherein the first motor is configured to rotate the distal end of the intraluminal member to damage a vein wall; and, the apparatus further comprises a second motor coupled to the intraluminal member to withdraw the intraluminal member.
Filter panel intended for a drum filter , said filter panel having multiple filter holes , wherein each filter hole has a length (L) and a width (W), characterized by that at least a substantial amount of the filter holes has a length (L) which is at least 1.5 times the width (W), wherein the filter panel has a free surface area which is at least 85%, on a side of the filter panel intended to be in contact with a filter cloth of the drum filter , wherein the filter panel comprises ribs with an increasing thickness from the side of the filter panel intended to be in contact with a filter cloth of the drum filter to the other side of the filter panel , wherein the ribs have a thickness of maximum 2.0 mm on a side of the filter panel intended to be in contact with a filter cloth of the drum filter , wherein at least 90% of the filter holes have a substantially rectangular shape, wherein substantially all of the filter holes have a length (L) in the range of 40 - 80 mm, and wherein the filter panels are arranged so that the length (L) and thus elongation of the filter holes are arranged in the direction of the rotation of the filter panels .
A device for continuous solid/liquid extraction comprising at least, from upstream to downstream: a mixer comprising an inlet and an outlet , an extraction coil comprising an inlet and an outlet , the inlet of the coil being connected to the outlet of the mixer , and a phase separator connected to the outlet of the coil , characterized in that it comprises an ultrasonic probe with radial irradiation placed in the center of the coil . a mixer comprising an inlet and an outlet , an extraction coil comprising an inlet and an outlet , the inlet of the coil being connected to the outlet of the mixer , and a phase separator connected to the outlet of the coil , characterized in that it comprises an ultrasonic probe with radial irradiation placed in the center of the coil .
A computer-implemented method of obtaining one or more probability density functions, each representing, for a different one tissue type from a plurality of possible tissue types of a predetermined classification scheme, a variation in a probability of obtaining a value of a first parameter associated with a first imaging modality over a range of possible values, the probability density function being for use in processing first imaging data obtained using the first imaging modality from a volume of tissue of a patient in order to assign each of first imaging voxels of the first imaging data to one of the tissue types of the classification scheme, the method comprising: accessing a reference database comprising second imaging data obtained from at least one reference tissue volume using a second imaging modality, the second imaging data comprising a value of a second parameter associated with the second imaging modality for each of a plurality of second imaging data voxels, and third imaging data obtained from the same at least one reference tissue volume using the first imaging modality, the third imaging data comprising a value of the first parameter for each of a plurality of third imaging data voxels; using the second imaging data to identify the tissue type, according to the predetermined classification scheme, of a plurality of the second imaging data voxels in the reference tissue volume; for each tissue type, identifying which third imaging data voxels correspond to second imaging data voxels of the tissue type in order to identify a set of third imaging data voxels corresponding to each tissue type; and analysing the distribution of values of the first parameter for the set of third imaging data voxels of each tissue type in order to determine the probability density function for the first parameter value for each of the tissue types. accessing a reference database comprising second imaging data obtained from at least one reference tissue volume using a second imaging modality, the second imaging data comprising a value of a second parameter associated with the second imaging modality for each of a plurality of second imaging data voxels, and third imaging data obtained from the same at least one reference tissue volume using the first imaging modality, the third imaging data comprising a value of the first parameter for each of a plurality of third imaging data voxels; using the second imaging data to identify the tissue type, according to the predetermined classification scheme, of a plurality of the second imaging data voxels in the reference tissue volume; for each tissue type, identifying which third imaging data voxels correspond to second imaging data voxels of the tissue type in order to identify a set of third imaging data voxels corresponding to each tissue type; and analysing the distribution of values of the first parameter for the set of third imaging data voxels of each tissue type in order to determine the probability density function for the first parameter value for each of the tissue types.