mhurhangee/ep-ind-claims huggingface dataset:
Connecting block for a sanitary fitting, comprising: - two input connections for connecting to pipes of a domestic installation, - at least one output connection for a pipe leading to a water outlet, and - plug-in connectors of plug-in connecting means for providing a mechanical plug-in connection of the connecting block with the sanitary fitting, - wherein the two input connections and the at least one output connection in the connecting block fluidly lead to a respective one of the plug-in connectors of the plug-in connecting means which is fluidly connectable to a corresponding connection of the sanitary fitting, and - wherein the input and output connections (8, 9) for the pipes are arranged on that side of the connection block which faces away from the side having the plug-in connectors. - two input connections for connecting to pipes of a domestic installation, - at least one output connection for a pipe leading to a water outlet, and - plug-in connectors of plug-in connecting means for providing a mechanical plug-in connection of the connecting block with the sanitary fitting, - wherein the two input connections and the at least one output connection in the connecting block fluidly lead to a respective one of the plug-in connectors of the plug-in connecting means which is fluidly connectable to a corresponding connection of the sanitary fitting, and - wherein the input and output connections (8, 9) for the pipes are arranged on that side of the connection block which faces away from the side having the plug-in connectors.
Method for reduction of energy input during operation of a production system consisting of machines and supply equipment with a determinable energy demand and energy planning units for work orders to be implemented in the machines, determining energy relevant parameters of the machines by an energy control unit being in contact by means of data lines or control lines with the elements of the production system and these are classified into representative load spectra being classes of operating states of the machines, on average expected energy recovery values are assigned to these load spectra media-dependently, wherein the media are electricity, liquid or gaseous media, the energy control unit is connected with an energy planning unit of the production system and/or a energy control unit of a power station wirelessly and/or by an internal network and/or the internet, and the respective time units of the load spectra are determined based on time periods for work order and machine combination by the planning unit, characterized in that the elements of the production system are connected according to a scheme generated by the energy control unit and these connections are separated by the energy control unit by means of isolating equipments, the energy control unit determines the energy needs of each appropriate machine for implementing a work order by the respective time units of the load spectra, which are determined based on time periods for work order and machine combination, and the energy control unit and/or the planning unit assigns the work orders of the machine, which shows lowest energy needs value in comparison to other machines.
A liquid storage system comprising: a tank for containing a liquid, said tank enclosing a liquid storage space; multiple layers of fabric (22a-d); and attachment means attaching the multiple layers of fabric (22a-d) to an internal surface of the tank; characterised in that the attachment means comprises a non-permeable envelope, the envelope being attached to the internal surface of the tank, the multiple layers of fabric (22a-d) being enclosed in the envelope such that the multiple layers of a fabric are isolated from a fluid in the tank. a tank for containing a liquid, said tank enclosing a liquid storage space; multiple layers of fabric (22a-d); and attachment means attaching the multiple layers of fabric (22a-d) to an internal surface of the tank; characterised in that the attachment means comprises a non-permeable envelope, the envelope being attached to the internal surface of the tank, the multiple layers of fabric (22a-d) being enclosed in the envelope such that the multiple layers of a fabric are isolated from a fluid in the tank.
A method for real time location of at least one leaf node device, comprising: taking at least one of signal strength information, proximity information and phase angle information each collected via Bluetooth Low Energy communication signals from the at least one leaf node device, wherein information from the same leaf node device is collected by at least two collection devices, the at least two collection devices comprising a first collection device and a second collection device, wherein each of the at least two collection devices is a reader node or a point of interest device; and delivering the collected information to a processing engine that is remote from the leaf node device; characterised in that the method further comprises the step of: processing, by the processing engine, the collected information in real time to make a first determination of the location of the leaf node device using the information collected by the first collection device and to make a second determination of the location of the leaf node device using the information collected by the second collection device; and calculating an average location for a leaf node device based on the two determinations of location for the leaf node device, wherein each of the determinations of location is based on data from a different one of the two or more collection devices. taking at least one of signal strength information, proximity information and phase angle information each collected via Bluetooth Low Energy communication signals from the at least one leaf node device, wherein information from the same leaf node device is collected by at least two collection devices, the at least two collection devices comprising a first collection device and a second collection device, wherein each of the at least two collection devices is a reader node or a point of interest device; and delivering the collected information to a processing engine that is remote from the leaf node device; characterised in that the method further comprises the step of: processing, by the processing engine, the collected information in real time to make a first determination of the location of the leaf node device using the information collected by the first collection device and to make a second determination of the location of the leaf node device using the information collected by the second collection device; and calculating an average location for a leaf node device based on the two determinations of location for the leaf node device, wherein each of the determinations of location is based on data from a different one of the two or more collection devices.
A method of receiving data on an optimal frequency channel in a wireless network comprising a plurality of frequency channels and a receiving participant, the method comprising • receiving data on a first subset of a plurality of time slots; wherein each of the plurality of frequency channels except the current optimal frequency channel is utilized at least once; • receiving data on a second subset of the plurality of time slots alternated with the time slots of the first subset; wherein the current optimal frequency channel is utilized; • determining a packet error rate for each of the plurality of frequency channels in the first and the second subsets; • determining a frequency channel to be the optimal frequency channel based on the packet error rate. • receiving data on a first subset of a plurality of time slots; wherein each of the plurality of frequency channels except the current optimal frequency channel is utilized at least once; • receiving data on a second subset of the plurality of time slots alternated with the time slots of the first subset; wherein the current optimal frequency channel is utilized; • determining a packet error rate for each of the plurality of frequency channels in the first and the second subsets; • determining a frequency channel to be the optimal frequency channel based on the packet error rate.
A pharmaceutical composition comprising - a hydrophilic nanocarrier comprising a hyperbranched polymer selected from the group comprising dendritic polymers and dendrimers, wherein the dendritic core of the nanocarrier is from polyglycerol and has a molecular weight of 3-10 kDa, and - an analgesic which when administered without nanocarrier has both peripheral action and action in the central nervous system, selected from the group consisting of nalbuphine, tramadol, tilidine, pethidine, codeine, piritramide, levomethadone, fentanyl, alfentanil, remifentanil, sufentanil, pentazocine, butorphanol, buprenorphine, methadone, 2-(3,4-dichlorophenyl)-N-methyl-N-[(1R,2R)-2-pyrrolidin-1-ylcyclo-hexyl]acetamide, (+)-(5α,7α,8β)-N-Methyl-N-[7-(1-pyrrolidinyl)-1-oxaspiro[4.5]dec-8-yl]-benzeneacetamide, dimethyl 3,7-dimethyl-9-oxo-2,4-dipyridin-2-yl-3,7-diazabicyclo[3.3.1]nonane-1,5-dicarboxylat, 2-(3,4-dichlorophenyl)-1-[ -2-(pyrrolidin-1-ylmethyl)piperidin-1-yl]ethanone, bremazocine and moxazozine, for use in the treatment of acute and chronic pain and/or inflammations through the peripheral action of the analgesic, wherein the effect of the analgesic is reduced in the central nervous system in comparison to a corresponding composition without nanocarrier. - a hydrophilic nanocarrier comprising a hyperbranched polymer selected from the group comprising dendritic polymers and dendrimers, wherein the dendritic core of the nanocarrier is from polyglycerol and has a molecular weight of 3-10 kDa, and - an analgesic which when administered without nanocarrier has both peripheral action and action in the central nervous system, selected from the group consisting of nalbuphine, tramadol, tilidine, pethidine, codeine, piritramide, levomethadone, fentanyl, alfentanil, remifentanil, sufentanil, pentazocine, butorphanol, buprenorphine, methadone, 2-(3,4-dichlorophenyl)-N-methyl-N-[(1R,2R)-2-pyrrolidin-1-ylcyclo-hexyl]acetamide, (+)-(5α,7α,8β)-N-Methyl-N-[7-(1-pyrrolidinyl)-1-oxaspiro[4.5]dec-8-yl]-benzeneacetamide, dimethyl 3,7-dimethyl-9-oxo-2,4-dipyridin-2-yl-3,7-diazabicyclo[3.3.1]nonane-1,5-dicarboxylat, 2-(3,4-dichlorophenyl)-1-[ -2-(pyrrolidin-1-ylmethyl)piperidin-1-yl]ethanone, bremazocine and moxazozine,
Tractor mower comprising a frame that mounts a motor and a cutting housing, said cutting housing comprises an upper wall, a side wall that hangs downward from an outer periphery of the upper wall and a cutting chamber is open downward comprising a left side cavity with left side circular base and a right side cavity with right side circular base intercommunicating with each other, said left side circular base and right side circular base define a base profile on a horizontal cutting plane of the cutting blades, said cutting blades being two, each of said two cutting blades being rotatably mounted by means of a left side vertical hub with the left side cavity and by means of a right side vertical hub with the right side cavity, said left side vertical hub defining a left side vertical axis and said right side vertical hub defining a right side vertical axis, the left side vertical axis arranged in a position shifted towards a front portion of the tractor mower with respect to the right side vertical axis arranged in a position shifted to a rear portion of the tractor mower, so that a horizontal line joining the left side vertical hub and the right side vertical hub identifies an axis that forms an angle (α) with respect to a longitudinal axis of the tractor mower, characterized in that said cutting housing is closed by the upper wall, by the side wall and is partially closed downwards by a horizontal lower wall disposed on the horizontal cutting plane of the cutting blades, said lower wall opens downwards only in correspondence of the cutting chamber, the base profile being horizontal on the cutting plane of the cutting chamber opened downwards, the base profile being outlined by an intersection between the side wall and the lower wall, said base profile of the cutting chamber is shaped as a rounded eight with a front connecting portion in the sense of the front portion of the tractor mower and with a rear connecting portion in the sense of the rear portion of the tractor mower, said connecting portions (121, 122) being such that the base profile of the cutting chamber changes gradually curvature from a portion of a left side circular base to a portion of a right side circular base, in such a way that an airflow generated by the cutting blades during rotation is as laminar and regular as possible inside the cutting chamber, said cutting chamber comprising an upper central cavity intercommunicating with the left side cavity and the right side cavity, said upper central cavity being suitable for allowing an exchange of air between inside and outside of the cutting chamber through an opening of the side wall making the interior of the cutting chamber communicate with the exterior.
A buoyant platform for arrangement of solar modules on an inland water, consisting of a framework structure, on the underside of which a plurality of floating bodies are arranged, wherein the platform consists of a plurality of buoyant platform segments, which in each case have the same cross-sectional shape, and in each case a buoyant platform segment has a self-supporting tubular lattice frame, formed by a plurality of longitudinal and transverse members (6.1, 6.4, 7, 7', 8), wherein the framework structure of the platform is formed by the connection of the tubular lattice frames of the individual platform segments, wherein the tubular lattice frame of a platform segment has a plurality of pairs of longitudinal members (6.1, 6.4, 7, 7') and between one pair of longitudinal members (6.1, 6.4, 7, 7') in each case at least one row of floating bodies is accommodated, characterised in that the tubular lattice frame has a triangular or trapezoidal cross-sectional shape.
A tooth whitening film comprising: - a dental bleaching agent comprising one or both of a non-hydrogen peroxide bleaching agent and hydrogen peroxide in a hydrogen peroxide-polymer complex, said non-hydrogen peroxide dental bleaching agent and hydrogen peroxide present in a total amount of about 0.01% to about 35% by weight; - one or more polyphosphates in a total amount of about of about 3% to about 15% by weight, said one or more polyphosphates comprising one or more cyclic polyphosphates; - one or more water soluble film-forming polymers in a total amount of about 40% to about 95% by weight; - one or more plasticizers in a total amount of about 0.1% to about 15% by weight; and - one or more emulsifiers in a total amount of about 0.1% to about 10% by weight, wherein the film has a thickness from about 50 μm to about 500 μm. - a dental bleaching agent comprising one or both of a non-hydrogen peroxide bleaching agent and hydrogen peroxide in a hydrogen peroxide-polymer complex, said non-hydrogen peroxide dental bleaching agent and hydrogen peroxide present in a total amount of about 0.01% to about 35% by weight; - one or more polyphosphates in a total amount of about of about 3% to about 15% by weight, said one or more polyphosphates comprising one or more cyclic polyphosphates; - one or more water soluble film-forming polymers in a total amount of about 40% to about 95% by weight; - one or more plasticizers in a total amount of about 0.1% to about 15% by weight; and - one or more emulsifiers in a total amount of about 0.1% to about 10% by weight, wherein the film has a thickness from about 50 μm to about 500 μm.
A hairdryer (10, 250, 360, 400, 500, 600, 700, 800) comprising a body (12, 272, 362, 412, 512, 612, 712, 812) a fluid flow path (20, 270, 364, 420, 520, 620, 720, 820) extending through the body in an axial direction from a first fluid inlet (20a, 364a, 620a, 720a, 820a) through which a first fluid flow enters the hairdryer to a first fluid outlet for emitting the first fluid flow from the hairdryer, a primary fluid flow path (30, 230, 280, 372, 430, 530, 630, 730, 830) extending from a second fluid inlet through which a primary fluid flow enters the hairdryer to a second fluid outlet (40b, 242,), wherein a section (40, 240, 290, 376, 430, 530, 640, 736, 830) of the primary fluid flow path extends through the body in the axial direction and surrounds the fluid flow path, and a heater (46, 298, 382, 388, 446, 546, 646, 746, 846) located within the section of the primary fluid flow path for heating fluid passing through the primary fluid flow path, and wherein the heater has a length extending in the axial direction characterised in that the heater (46, 298, 382, 388, 446, 546, 646, 746, 846) is annular in shape.
A distributed environmental monitoring system comprising one or more optical fibres along the length of which light can be transmitted, wherein each optical fibre comprises a tubular cladding along the interior of which runs a first core along which light is transmitted from a first end of the fibre to a second end of the fibre, the light exiting the second end into an environment to be sensed, and a second core along which light returned from the environment is transmitted from the second end to the first end; wherein each of the one or more optical fibres defining a plurality of nodes spaced along the length, each node configured to vary the properties of light returned back along the respective optical fibre according to a condition of the environment detected at the node, each node varying the properties of the returned light differently, in accordance with different properties of the environment to be measured, based on its configuration and its location along the length of the optical fibre; the system further comprising a light source for transmitting light into and along the optical fibre(s) and one or more detectors for receiving light returned along the optical fibre(s) from the environment via the nodes. each of the one or more optical fibres defining a plurality of nodes spaced along the length, each node configured to vary the properties of light returned back along the respective optical fibre according to a condition of the environment detected at the node, each node varying the properties of the returned light differently, in accordance with different properties of the environment to be measured, based on its configuration and its location along the length of the optical fibre; the system further comprising a light source for transmitting light into and along the optical fibre(s) and one or more detectors for receiving light returned along the optical fibre(s) from the environment via the nodes.
A hinge, in particular a multi-joint hinge, having a mounting plate fixable on a body or door and a side part, which is held on the mounting plate and on which a hinge part is pivotably mounted, wherein the side part is displaceable on the mounting plate in a longitudinal direction via a depth adjustment unit and the side part is pivotable in relation to the mounting plate by a vertical adjustment unit, whereby the side part is fixed on the mounting plate via a catch element and is latched with a bolt, which is displaceably mounted in the mounting plate, whereby the catch element is held on the side part, in particular in a displaceable manner or springloaded on one side, characterized in that the catch element comprises at least one hook element, which partially encloses the bolt and secures the side part against lifting off from the mounting plate, whereby the side part is rotatably mounted around the bolt for a vertical adjustment.
A method of estimating a propulsion related operating parameter of a vehicle for a road segment, the method being performed by a navigation device, the method comprising the steps of: - estimating a given vehicle operating parameter for the road segment based on information provided for the road segment; - acquiring driving data for vehicle operating parameters while the vehicle is in operation; identifying different driving phases in the driving data acquired for the vehicle operating parameters; - for each one of the driving phases: determining a plurality of vehicle specific parameters based on a predetermined relationship between the vehicle operating parameters of a respective set of vehicle operating parameters and further based on the corresponding driving data, the predetermined relationship being indicative of the plurality of vehicle specific parameters, - estimating the propulsion related operating parameter for the road segment on the basis of said estimated given vehicle operating parameter and the plurality of vehicle specific parameters, wherein the propulsion related operating parameter is at least one of a fuel consumption, an energy consumption and a carbon dioxide (CO 2) emission, wherein the plurality of vehicle specific parameters are determined using a statistical parameter estimation procedure or a parameter optimization procedure. - estimating a given vehicle operating parameter for the road segment based on information provided for the road segment; - acquiring driving data for vehicle operating parameters while the vehicle is in operation; identifying different driving phases in the driving data acquired for the vehicle operating parameters; - for each one of the driving phases: determining a plurality of vehicle specific parameters based on a predetermined relationship between the vehicle operating parameters of a respective set of vehicle operating parameters and further based on the corresponding driving data, the predetermined relationship being indicative of the plurality of vehicle specific parameters, - estimating the propulsion related operating parameter for the road segment on the basis of said estimated given vehicle operating parameter and the plurality of vehicle specific parameters, wherein the propulsion related operating parameter is at least one of a fuel consumption, an energy consumption and a carbon dioxide (CO 2) emission, wherein the plurality of vehicle specific parameters are determined using a statistical parameter estimation procedure or a parameter optimization procedure.